mhurhangee/ep-ind-claims huggingface dataset:
Field device for determining or monitoring a process variable in process automation, consisting of a sensor that works according to a defined measuring principle, and a control/evaluation unit which prepares and evaluates the measured data supplied by the sensor, characterized in that the control/evaluation unit is designed as a FPGA logic module which can be reconfigured partially dynamically with multiple dynamically reconfigurable function modules, in that an interface is provided via which the control/evaluation unit receives sensor-specific and application-specific information about a defined sensor type in a defined process application, and in that the control/evaluation unit configures the function modules in accordance with the sensor-specific and application-specific information in such a way that the field device is optimally adapted to the process variable to be determined or to be monitored and to the current process application of the field device.
A subassembly for a chair of the type including a separate seat and back which are adjustable among a plurality of positions, and a chair frame for supporting the seat and back above a surface, the subassembly comprising: a seat frame for supporting the chair seat, a drive frame connectable to the chair back, a yoke frame for chair mounting, the seat frame, the drive frame and the yoke frame being inter-coupled by a plurality of pivot links (16, 17, 18, 19) for floating mobility of the seat frame upon the yoke frame. a seat frame for supporting the chair seat, a drive frame connectable to the chair back, a yoke frame for chair mounting, the seat frame, the drive frame and the yoke frame being inter-coupled by a plurality of pivot links (16, 17, 18, 19) for floating mobility of the seat frame upon the yoke frame.
A shuttering element for constructing a vertical wall of a concrete structure intended to contain a liquid, the shuttering element having inner faces and outer faces which are respectively oriented toward the interior and exterior of the shuttering element, the shuttering element comprising: - a first shuttering panel made of perforated sheet metal, - a second shuttering panel made of fiber cement, and - spacers fixed to the inner faces to keep the shuttering panels parallel to each other and at a distance from each other, characterized in that the shuttering element comprises: - an opening, said lower opening, made in one of the outer faces, referred to as the first outer face, at a first end of the first outer face, - an opening, said upper opening, made in the other outer faces, said second outer face, at a second end opposed to the first end, in order to form a reversible shuttering element whose orientation depends on the finishing to be applied, and whose opening arranged at the lower end of the shuttering element, one the shuttering element arranged in the vertical position, allows the concrete to may flow. - a first shuttering panel made of perforated sheet metal, - a second shuttering panel made of fiber cement, and - spacers fixed to the inner faces to keep the shuttering panels parallel to each other and at a distance from each other, - an opening, said lower opening, made in one of the outer faces, referred to as the first outer face, at a first end of the first outer face, - an opening, said upper opening, made in the other outer faces, said second outer face, at a second end opposed to the first end, in order to form a reversible shuttering element whose orientation depends on the finishing to be applied, and whose opening arranged at the lower end of the shuttering element, one the shuttering element arranged in the vertical position, allows the concrete to may flow.
A fire-resistant lighting fitting intended to be mounted in a panel, the fitting including a body in which a lamp may be mounted, the body comprising one or more ventilation apertures, characterised in that each ventilation aperture is formed in a sidewall of the fitting by forming a slit in the wall and deforming the wall to one side of the slit inwardly or outwardly of the body to enlarge the slit and create what will, in use, become an at least partially downward path extending through the slit from the interior to the exterior of the body, the or each ventilation aperture being sized and configured to allow heat generated by a lamp in the body to be adequately vented to the exterior of the body but to inhibit passage of fire from the interior of the body to the exterior of the body.
A method for connecting a first component to a second component having a through-hole, having the following steps: • bringing together and positioning the two components (1, 2) relative to each other, • detecting the spatial position of the hole by means of position detection electronics, • positioning a connecting element at a point within the hole as a function of the spatial position of the hole or as a function of position data ascertained by the position detection electronics, • connecting the connecting element to the first component, so that the connecting element projects into the hole or through the hole, • clipping a clip element which holds the two components (1, 2) together onto the connecting element. • bringing together and positioning the two components (1, 2) relative to each other, • detecting the spatial position of the hole by means of position detection electronics, • positioning a connecting element at a point within the hole as a function of the spatial position of the hole or as a function of position data ascertained by the position detection electronics, • connecting the connecting element to the first component, so that the connecting element projects into the hole or through the hole, • clipping a clip element which holds the two components (1, 2) together onto the connecting element.
Method for manufacturing a layer of polyurethane from recycled mattresses, said layer consisting of flakes of polyurethane foam, binder, and optionally additives, said flakes consisting of at least 98% by weight relative to the total weight of the flakes of a polyurethane foam, said method comprising the following successive steps: a) a step of dismantling used mattresses, allowing to provide separated base materials, the base materials comprising in particular polyurethane foams and latex foams, b) a step of selecting non-contaminated polyurethane foams having a concentration of compounds that are halogenated and/or comprise heavy metals less than or equal to 0.1%; c) a step of grinding said foams obtained in step b), to obtain flakes of non-contaminated polyurethane foam having an average particle size less than or equal to 20mm, d) a step of forming a layer of polyurethane, comprising the mixture of the flakes of polyurethane foam from step c) with a binder, and optionally additives. a) a step of dismantling used mattresses, allowing to provide separated base materials, the base materials comprising in particular polyurethane foams and latex foams, b) a step of selecting non-contaminated polyurethane foams having a concentration of compounds that are halogenated and/or comprise heavy metals less than or equal to 0.1%; c) a step of grinding said foams obtained in step b), to obtain flakes of non-contaminated polyurethane foam having an average particle size less than or equal to 20mm, d) a step of forming a layer of polyurethane, comprising the mixture of the flakes of polyurethane foam from step c) with a binder, and optionally additives.
A method, comprising: configuring a circuit comprising a reconfigurable logic device, a digital signal processor component, or a neural network component to perform block floating-point operations, the operations comprising: producing a block floating-point, BFP, representation of a plurality of matrices or vectors, wherein at least two elements but not all elements of the respective matrices or vectors share a common exponent in the BFP representation; performing a mathematical operation on the BFP representation of two or more of the plurality of matrices or vectors which produces an output matrix or vector; and based on the output matrix or vector: selecting an updated common exponent for at least two or more but not all of the elements of the output matrix or vector; and producing a BFP representation of an updated matrix or vector, at least two elements but not all elements of the updated matrix or vector sharing the selected updated common exponent. producing a block floating-point, BFP, representation of a plurality of matrices or vectors, wherein at least two elements but not all elements of the respective matrices or vectors share a common exponent in the BFP representation; performing a mathematical operation on the BFP representation of two or more of the plurality of matrices or vectors which produces an output matrix or vector; and based on the output matrix or vector: selecting an updated common exponent for at least two or more but not all of the elements of the output matrix or vector; and producing a BFP representation of an updated matrix or vector, at least two elements but not all elements of the updated matrix or vector sharing the selected updated common exponent. selecting an updated common exponent for at least two or more but not all of the elements of the output matrix or vector; and producing a BFP representation of an updated matrix or vector, at least two elements but not all elements of the updated matrix or vector sharing the selected updated common exponent.
A method of producing color change in a web substrate, the method comprising the steps of: a. providing a web substrate comprising an activatable colorant; b. applying a first external stimulus to the web substrate to activate the activatable colorant producing a first activated color region in the web substrate; and c. mechanically deforming the first activated color region of the web substrate to produce a second external stimulus comprising deforming the first activated color region of the web substrate producing at least one deformed region therein wherein a second activated color region is produced coinciding with the at least one deformed region. a. providing a web substrate comprising an activatable colorant; b. applying a first external stimulus to the web substrate to activate the activatable colorant producing a first activated color region in the web substrate; and c. mechanically deforming the first activated color region of the web substrate to produce a second external stimulus comprising deforming the first activated color region of the web substrate producing at least one deformed region therein wherein a second activated color region is produced coinciding with the at least one deformed region.
A system for automatically deploying at least one boat fender to protect a boat's hull, comprising: at least one fender receptacle, each said at least one fender receptacle configured to hold a boat fender in a stowed position and further configured to lower the boat fender from the stowed position into a deployed position capable of protecting the boat's hull; wherein the at least one boat fender is attached to a line, the line being coupled to a winch, the winch being coupled to a motor; and a system controller comprising a plurality of software programming instructions stored in a memory and operating on a processor of a computing device; wherein the system controller directs the operation of the motor, and wherein the system controller receives GPS information pertaining to the boat, and sets a height of fenders deployed at the location or indicates a requirement for input to raise or lower the boat fender, the prompt being based at least in part on the GPS information; and wherein the system controller, based upon input instructions, directs the motor to lower the boat fender to the deployed position when the boat arrives at a predetermined distance from a dock or raise the fender from the deployed position after the boat has departed a predetermined distance from the dock. at least one fender receptacle, each said at least one fender receptacle configured to hold a boat fender in a stowed position and further configured to lower the boat fender from the stowed position into a deployed position capable of protecting the boat's hull; wherein the at least one boat fender is attached to a line, the line being coupled to a winch, the winch being coupled to a motor; and a system controller comprising a plurality of software programming instructions stored in a memory and operating on a processor of a computing device; wherein the system controller directs the operation of the motor, and wherein the system controller receives GPS information pertaining to the boat, and sets a height of fenders deployed at the location or indicates a requirement for input to raise or lower the boat fender, the prompt being based at least in part on the GPS information; and wherein the system controller, based upon input instructions, directs the motor to lower the boat fender to the deployed position when the boat arrives at a predetermined distance from a dock or raise the fender from the deployed position after the boat has departed a predetermined distance from the dock.
A method, implemented in a computing device having a web data platform including an engine layer, a data store layer, a behavior store layer, and an application interface layer, the method comprising: collecting, via the engine layer, web data from one or more web pages accessed via the computing device, at least some of the web data being configured in a structured data format; generating an object model to describe the collected web data, the object model having a plurality of objects stored in the data store layer of the computing device, wherein the plurality of objects represent items, collections (316, 410), and properties of the collected web data; allowing, via the API layer, a plurality of applications to be executed on the computing device to access and use the collected web data described by the plurality of objects, and wherein the plurality of objects comprise one or more methods that allow the plurality of applications to interact with the plurality of objects; updating changes to the web data, wherein the changes are determined by comparing previously stored web data to new versions of the web data, and providing notifications of the changes to one or more of the plurality of applications executing on the computing device; receiving requests from the plurality of applications executing on the computing device to perform an action on the web data, the requests being received via invocation of the one or more methods of the plurality of objects; and performing the requested action on the web data. collecting, via the engine layer, web data from one or more web pages accessed via the computing device, at least some of the web data being configured in a structured data format; generating an object model to describe the collected web data, the object model having a plurality of objects stored in the data store layer of the computing device, wherein the plurality of objects represent items, collections (316, 410), and properties of the collected web data; allowing, via the API layer, a plurality of applications to be executed on the computing device to access and use the collected web data described by the plurality of objects, and wherein the plurality of objects comprise one or more methods that allow the plurality of applications to interact with the plurality of objects; updating changes to the web data, wherein the changes are determined by comparing previously stored web data to new versions of the web data, and providing notifications of the changes to one or more of the plurality of applications executing on the computing device; receiving requests from the plurality of applications executing on the computing device to perform an action on the web data, the requests being received via invocation of the one or more methods of the plurality of objects; and performing the requested action on the web data.
A method of detecting movement of objects depicted in a lidar point cloud on a device comprising a processor, the method comprising: executing on the processor instructions configured to: map respective lidar points in the lidar point cloud to a voxel in a three-dimensional voxel space; identify at least one object represented by a voxel cluster of voxels sharing an adjacency within the three-dimensional voxel space, wherein adjacency of two voxels is determined by a specified number of voxels between said two voxels; for the respective lidar points in the lidar point cloud: associate the lidar point with a selected object, and classify the movement of the lidar point according to the selected object; and for the respective objects, classify the movement of the object according to the movement of the respective lidar points associated with the object. executing on the processor instructions configured to: map respective lidar points in the lidar point cloud to a voxel in a three-dimensional voxel space; identify at least one object represented by a voxel cluster of voxels sharing an adjacency within the three-dimensional voxel space, wherein adjacency of two voxels is determined by a specified number of voxels between said two voxels; for the respective lidar points in the lidar point cloud: associate the lidar point with a selected object, and classify the movement of the lidar point according to the selected object; and for the respective objects, classify the movement of the object according to the movement of the respective lidar points associated with the object. map respective lidar points in the lidar point cloud to a voxel in a three-dimensional voxel space; identify at least one object represented by a voxel cluster of voxels sharing an adjacency within the three-dimensional voxel space, wherein adjacency of two voxels is determined by a specified number of voxels between said two voxels; for the respective lidar points in the lidar point cloud: associate the lidar point with a selected object, and classify the movement of the lidar point according to the selected object; and associate the lidar point with a selected object, and classify the movement of the lidar point according to the selected object; and for the respective objects, classify the movement of the object according to the movement of the respective lidar points associated with the object.
A low-phosphorus lubricating composition having less than 600 ppm phosphorus, comprising at least 85 weight % of a lubricating base blend, and an additive comprising the following, as weight % of the total composition: an organomolybdenum compound at an amount which provides 0.1-800 ppm Mo being a complex prepared by reacting 1 mole of fatty oil, 1.0 to 2.5 moles of diethanolamine and a molybdenum source sufficient to yield 0.1 to 12.0 percent of molybdenum; a hindered phenol at 0.1-2%; a zinc dithiocarbamate at 0.1-2%; and an alkylated diphenylamine at 0.1-2%. an organomolybdenum compound at an amount which provides 0.1-800 ppm Mo being a complex prepared by reacting 1 mole of fatty oil, 1.0 to 2.5 moles of diethanolamine and a molybdenum source sufficient to yield 0.1 to 12.0 percent of molybdenum; a hindered phenol at 0.1-2%; a zinc dithiocarbamate at 0.1-2%; and an alkylated diphenylamine at 0.1-2%.
A robot cleaner including a detecting apparatus capable of detecting a floor on which the robot cleaner moves, the detecting apparatus comprising: a detecting unit provided with a transmitting unit for sending a light signal to detect the floor and a receiving unit for receiving the signal sent from the transmitting unit to be reflected on the floor; an optic angle adjusting unit (440, 450) disposed at at least one of the transmitting unit and the receiving unit and configured to adjust optic angles of the signal; a light shielding unit (460, 470) configured to partially shield the signal sent through the optic angle adjusting unit by shielding a peripheral portion of the signal in order to reduce a measurement deviation between the transmitting unit and the receiving unit;; wherein the light shielding unit (460, 470) is configured to partially shield the optic angle adjusting unit, and to shield the optic angle adjusting unit by a certain length from an outer side of the optic angle adjusting unit to an inner side thereof, characterised in that the detecting apparatus further comprises a light amount adjusting unit configured to feedback an amount of light received at the receiving unit to adjust an amount of light sent from the transmitting unit. a detecting unit provided with a transmitting unit for sending a light signal to detect the floor and a receiving unit for receiving the signal sent from the transmitting unit to be reflected on the floor; an optic angle adjusting unit (440, 450) disposed at at least one of the transmitting unit and the receiving unit and configured to adjust optic angles of the signal; a light shielding unit (460, 470) configured to partially shield the signal sent through the optic angle adjusting unit by shielding a peripheral portion of the signal in order to reduce a measurement deviation between the transmitting unit and the receiving unit;; wherein the light shielding unit (460, 470) is configured to partially shield the optic angle adjusting unit, and to shield the optic angle adjusting unit by a certain length from an outer side of the optic angle adjusting unit to an inner side thereof,
An undercarriage for an agricultural machine, said undercarriage comprising: a hollow axle; a stub axle slidably received within said hollow axle; a lock arrangement for locking a longitudinal position of said stub axle relative to said hollow axle; at least one adjustment device, the adjustment device being a shim positioned at an outboard end of said hollow axle to adjust a distance between said stub axle and said hollow axle; and at least one bolt, each said bolt extending through a hole in said outboard end of said hollow axle and an aligned opening in said at least one shim, characterized in that each said opening is a slot extending from an edge of said shim. a hollow axle; a stub axle slidably received within said hollow axle; a lock arrangement for locking a longitudinal position of said stub axle relative to said hollow axle; at least one adjustment device, the adjustment device being a shim positioned at an outboard end of said hollow axle to adjust a distance between said stub axle and said hollow axle; and at least one bolt, each said bolt extending through a hole in said outboard end of said hollow axle and an aligned opening in said at least one shim, characterized in that each said opening is a slot extending from an edge of said shim.
A process chamber, comprising: a first dome; a second dome; a substrate support disposed between the first dome and the second dome; a first plurality of heating elements disposed over the first dome, wherein the first dome is disposed between the first plurality of heating elements and the substrate support; a lid disposed over the first plurality of heating elements; a support member disposed on the lid; a track disposed on the support member in a radial direction; and a spot heating source assembly disposed on the track, wherein the spot heating source assembly comprises a radiant spot heating source pointed at the substrate support. a first dome; a second dome; a substrate support disposed between the first dome and the second dome; a first plurality of heating elements disposed over the first dome, wherein the first dome is disposed between the first plurality of heating elements and the substrate support; a lid disposed over the first plurality of heating elements; a support member disposed on the lid; a track disposed on the support member in a radial direction; and a spot heating source assembly disposed on the track, wherein the spot heating source assembly comprises a radiant spot heating source pointed at the substrate support.