mhurhangee/patent-ind-claim-en huggingface dataset:
A system for packaging objects with a hose-shaped stretch foil, said system comprises: • a movable packaging frame having a plurality of horizontally oriented gripping arms for holding and stretching the stretch foil ; • a first conveyor for supporting an object and transporting it toward the packaging frame so that the object is delivered between the gripping arms , said first conveyor transporting the object perpendicular to the packaging frame and in an axis parallel with the gripping arms ; • a second conveyor for supporting the object and transporting it away from the packaging frame , said second conveyor placed next to the packaging frame , which during the ungathering of the stretch foil is placed between the first and second conveyors , and oriented axially with the gripping arms ; • stretch foil storage and dispensing means for storing and dispensing a portion of hose-shaped stretch foil ; • a cutting device for cutting a predetermined portion of hose-shaped stretch foil , said cutting device being associated with the stretch foil storage and dispensing means ; • a rail system for moving the packaging frame between the stretch foil storage and dispensing means and the area between the first and second conveyors; and • a control unit; characterized in that each gripping arm is equipped with opposing and activated rollers which can be brought into contact with the stretch foil , whereby activation of the rollers enable the stretch foil to be gathered onto and ungathered from the gripping arms , said gripping arms being independently and laterally movable to achieve stretching of stretch foil . • a movable packaging frame having a plurality of horizontally oriented gripping arms for holding and stretching the stretch foil ; • a first conveyor for supporting an object and transporting it toward the packaging frame so that the object is delivered between the gripping arms , said first conveyor transporting the object perpendicular to the packaging frame and in an axis parallel with the gripping arms ; • a second conveyor for supporting the object and transporting it away from the packaging frame , said second conveyor placed next to the packaging frame , which during the ungathering of the stretch foil is placed between the first and second conveyors , and oriented axially with the gripping arms ; • stretch foil storage and dispensing means for storing and dispensing a portion of hose-shaped stretch foil ; • a cutting device for cutting a predetermined portion of hose-shaped stretch foil , said cutting device being associated with the stretch foil storage and dispensing means ; • a rail system for moving the packaging frame between the stretch foil storage and dispensing means and the area between the first and second conveyors; and • a control unit;
A device for obtaining and processing 3D images, comprising: a) a transom mounting , b) two cameras arranged on the transom mounting , and synchronized in such a way as to focus in on a common point with the same aperture and same zoom, wherein the camera is a main camera, wherein the main camera can be selected by a user and guides the synchronization, and wherein the cameras are designed for 10x magnification, c) a monitor allocated to each camera for displaying a respective image of the respective camera , wherein the monitors are arranged on the transom mounting in such a way that optical axes of the monitor coincide with optical axes of the eyes of a user of the device, or at least can be aligned parallel to the optical axes of the eyes of a user, and d) a data processing unit for processing the data of camera images, characterized in that e) the device comprises a foot switch , wherein the foot switch is hooked up to the data processing unit , and wherein the foot switch controls the magnification and/or a focus of the camera . a) a transom mounting , b) two cameras arranged on the transom mounting , and synchronized in such a way as to focus in on a common point with the same aperture and same zoom, wherein the camera is a main camera, wherein the main camera can be selected by a user and guides the synchronization, and wherein the cameras are designed for 10x magnification, c) a monitor allocated to each camera for displaying a respective image of the respective camera , wherein the monitors are arranged on the transom mounting in such a way that optical axes of the monitor coincide with optical axes of the eyes of a user of the device, or at least can be aligned parallel to the optical axes of the eyes of a user, and d) a data processing unit for processing the data of camera images, characterized in that e) the device comprises a foot switch , wherein the foot switch is hooked up to the data processing unit , and wherein the foot switch controls the magnification and/or a focus of the camera .
A fuel system comprising: a fuel supply system ; a plurality of fuel nozzles connected in fluid communication with the fuel supply system to supply fuel from a fuel source; the fuel supply system including a first fuel manifold connected in fluid communication with a first subset of the fuel nozzles to supply fuel from the fuel source; a cooling system including a second fuel manifold connected in fluid communication with a second subset of fuel nozzles to supply fuel from the fuel source; wherein each one of the plurality of fuel nozzles includes a fuel circuit with a fuel circuit inlet, and a cooling circuit with a cooling circuit inlet and a cooling circuit outlet ; wherein each one of the plurality of fuel nozzles of the second subset of fuel nozzles is arranged in alternating pattern between a pair of fuel nozzles of the first subset of fuel nozzles ; wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the first subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the second subset of fuel nozzles for combustion; and wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the second subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the first subset of fuel nozzles for combustion. a fuel supply system ; a plurality of fuel nozzles connected in fluid communication with the fuel supply system to supply fuel from a fuel source; the fuel supply system including a first fuel manifold connected in fluid communication with a first subset of the fuel nozzles to supply fuel from the fuel source; a cooling system including a second fuel manifold connected in fluid communication with a second subset of fuel nozzles to supply fuel from the fuel source; wherein each one of the plurality of fuel nozzles includes a fuel circuit with a fuel circuit inlet, and a cooling circuit with a cooling circuit inlet and a cooling circuit outlet ; wherein each one of the plurality of fuel nozzles of the second subset of fuel nozzles is arranged in alternating pattern between a pair of fuel nozzles of the first subset of fuel nozzles ; wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the first subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the second subset of fuel nozzles for combustion; and wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the second subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the first subset of fuel nozzles for combustion.
A system comprising: a three-dimensional printer ; a number of tools including an extruder ; a tool crib including a number of bins to receive the number of tools ; a sensor system to detect a presence of the tools in the bins ; an active element to manipulate one of the tools in one of the bins , the active element including a heating element; a robotic system to pick and place the number of tools in the number of bins , the robotic system including an x-y-z positioning system having an operating envelope that provides a shared workspace for the tool crib and the three-dimensional printer ; and a controller configured to control operation of the sensor system , the active element , and the robotic system , , wherein the controller is configured to preheat the extruder with the heating element prior to use in a three-dimensional printing process, and wherein the controller is configured to clean the extruder within the tool crib . a three-dimensional printer ; a number of tools including an extruder ; a tool crib including a number of bins to receive the number of tools ; a sensor system to detect a presence of the tools in the bins ; an active element to manipulate one of the tools in one of the bins , the active element including a heating element; a robotic system to pick and place the number of tools in the number of bins , the robotic system including an x-y-z positioning system having an operating envelope that provides a shared workspace for the tool crib and the three-dimensional printer ; and a controller configured to control operation of the sensor system , the active element , and the robotic system , , wherein the controller is configured to preheat the extruder with the heating element prior to use in a three-dimensional printing process, and wherein the controller is configured to clean the extruder within the tool crib .
A method comprising: receiving triangular mesh data describing a three-dimensional object; in each of three orthogonal orientations, obtaining dimensional layers of the 3D object from a slicer program; obtaining a perimeter length value for each layer of each of the three orthogonal orientations; comparing the obtained perimeter length values to stored perimeter length value for a reference object; and determining whether a match exists between the 3D object and the reference object based upon an amount of matching of the obtained and stored perimeter length values. receiving triangular mesh data describing a three-dimensional object; in each of three orthogonal orientations, obtaining dimensional layers of the 3D object from a slicer program; obtaining a perimeter length value for each layer of each of the three orthogonal orientations; comparing the obtained perimeter length values to stored perimeter length value for a reference object; and determining whether a match exists between the 3D object and the reference object based upon an amount of matching of the obtained and stored perimeter length values.
A pneumatic tire comprising a generally toroidal-shaped supporting carcass with an outer circumferential tread , two spaced beads , at least one ply extending from bead to bead, sidewalls extending radially from and connecting said tread to said beads , a sealant layer which is disposed inwardly from the supporting carcass , and an innerliner which is disposed inwardly from the sealant layer , the innerliner being an air barrier layer serving to keep air or another gas from escaping through the tire structure by diffusion, wherein said circumferential tread is adapted to be ground-contacting, wherein said sealant layer comprises a sealant composition comprising polyisobutylene, and wherein said polyisobutylene has a weight average molecular weight which is within the range of from 35,000 to 90,000, characterized in that the sealant composition comprises 0.1 to 2 phr of, or is encapsulated by, a polyethylene, a polypropylene or a polyethylene glycol having a weight average molecular weight in a range of from 500 to 40,000.
An apparatus comprising: an image processor configured to receive a video, superimpose a virtual object on the video at a distance from a reference point of a real object detected in the video, and modify a location of the virtual object based on a distance between the virtual object and the reference point in a later frame, wherein the location of the virtual object is modified at a rate based on the distance between the virtual object and the reference point in the later frame, wherein said rate becomes slower propotional to the extent that said virtual object is far from the reference point. an image processor configured to receive a video, superimpose a virtual object on the video at a distance from a reference point of a real object detected in the video, and modify a location of the virtual object based on a distance between the virtual object and the reference point in a later frame, wherein the location of the virtual object is modified at a rate based on the distance between the virtual object and the reference point in the later frame, wherein said rate becomes slower propotional to the extent that said virtual object is far from the reference point.
Guide system comprising a guide rail which can be placed on a ground and a guide carriage suitable for guiding a hand-operated power tool , wherein the guide rail has at least one guide contour extending along its longitudinal dimension (LE) for guiding the guide carriage , wherein the guide carriage forms a part of the hand-operated power tool or can be joined to the hand-operated power tool using connecting means, wherein the hand-operated power tool has a drive assembly for driving a cutting tool having a cutting body and provided for cutting into a workpiece (W) along a working direction (AR), characterised in that the guide system has a supporting device connected to the guide carriage or releasably connectable thereto using fixing means for supporting the drive assembly of the hand-operated power tool at a distance from the guide carriage provided for placing the workpiece (W) on the guide rail , so that the cutting tool is located in the gap between the guide rail and the drive assembly for cutting into the workpiece (W) lying on the guide rail .
Method for operating a system , wherein the system has: - a plurality of components which interact with one another, wherein a respective component has a microprocessor and an associated program memory for storing an application program , wherein the microprocessor of the component executes the stored application program during operation of the component , wherein the method has the steps of: - storing information relating to the interaction of a respective component with the other components in the respective component , wherein the information is stored in the program memory , characterized in that - the information is inserted as metadata into a source text , wherein the respective application program of the component is generated from the source text , - the source text is compiled for generating the application program , and - the source text is subjected to a link operation after compiling for generating the application program . - a plurality of components which interact with one another, wherein a respective component has a microprocessor and an associated program memory for storing an application program , wherein the microprocessor of the component executes the stored application program during operation of the component , - storing information relating to the interaction of a respective component with the other components in the respective component , wherein the information is stored in the program memory , - the information is inserted as metadata into a source text , wherein the respective application program of the component is generated from the source text , - the source text is compiled for generating the application program , and - the source text is subjected to a link operation after compiling for generating the application program .
Rotary rake comprising a frame extending in the direction of travel (FR), which can be coupled via an attachment point at the front to an agricultural traction and driving machine and has a chassis for supporting it on the ground, with a first rotary rake and a second rotary rake being arranged on either side of the frame in the transverse direction (QR), wherein a central axis (M1) of the first rotary rake is arranged, in the longitudinal direction (LR) of the frame , between the attachment point and a central axis (M2) of the second rotary rake , wherein the first rotary rake via a first support arm and the second rotary rake via a second support arm , with each arm being pivotable about a respective support arm pivot axis (S1, S2), are mounted on the frame , wherein the rotary rakes are each operatively connected to a drivetrain for driving the rotary rakes , which drivetrain is adapted to be connected via a power take-off (PTO) connection point to an output of the traction and driving machine by means of a driving cardan shaft , which drivetrain has a connecting cardan shaft which connects a first transfer gearbox to a second transfer gearbox , which are mounted on the frame at a location above the rotary rakes , and wherein the first transfer gearbox is connected to the first rotary rake via a first rotary rake cardan shaft and the second transfer gearbox is connected to the second rotary rake via a second rotary rake cardan shaft , characterized in that the second transfer gearbox is arranged in the longitudinal direction (LR) of the frame between the attachment point and the first transfer gearbox , and the PTO connection point is connected to the second transfer gearbox via a connecting cardan shaft arrangement .
A supply and disposal system for an autonomous floor cleaner, comprising: a docking station for docking an autonomous floor cleaner , the docking station comprising: a liquid supply system configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit and a supply coupling configured to couple with a corresponding receiver coupling on the autonomous floor cleaner ; and a disposal system configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner ; wherein the docking station is configured to be fluidly coupled to a household plumbing infrastructure, and to fill the supply tank and to empty the recovery tank via the household plumbing infrastructure. a docking station for docking an autonomous floor cleaner , the docking station comprising: a liquid supply system configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit and a supply coupling configured to couple with a corresponding receiver coupling on the autonomous floor cleaner ; and a disposal system configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner ; a liquid supply system configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit and a supply coupling configured to couple with a corresponding receiver coupling on the autonomous floor cleaner ; and a disposal system configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner ; wherein the docking station is configured to be fluidly coupled to a household plumbing infrastructure, and to fill the supply tank and to empty the recovery tank via the household plumbing infrastructure.
A device comprising: one or more of an input device and a communications unit ; and a controller communicatively coupled to one or more of the input device and the communications unit , the controller configured to: when a received textual term, received via one or more of the input device and the communications unit , is phonetically similar to one or more existing textual terms used for activating functionality at a communication device using a voice recognition algorithm: generate one or more suggested textual terms that minimize phonetic similarities with the one or more existing textual terms, the one or more suggested textual terms related to the received textual term, the one or more suggested textual terms generated by retrieving, at the controller , the one or more suggested textual terms from a list of previously used textual terms no longer in use for activating the functionality at the communication device using the voice recognition algorithm; and cause an output device to provide an indication of the one or more suggested textual terms to use in place of the received textual term. one or more of an input device and a communications unit ; and a controller communicatively coupled to one or more of the input device and the communications unit , the controller configured to: when a received textual term, received via one or more of the input device and the communications unit , is phonetically similar to one or more existing textual terms used for activating functionality at a communication device using a voice recognition algorithm: generate one or more suggested textual terms that minimize phonetic similarities with the one or more existing textual terms, the one or more suggested textual terms related to the received textual term, the one or more suggested textual terms generated by retrieving, at the controller , the one or more suggested textual terms from a list of previously used textual terms no longer in use for activating the functionality at the communication device using the voice recognition algorithm; and cause an output device to provide an indication of the one or more suggested textual terms to use in place of the received textual term. generate one or more suggested textual terms that minimize phonetic similarities with the one or more existing textual terms, the one or more suggested textual terms related to the received textual term, the one or more suggested textual terms generated by retrieving, at the controller , the one or more suggested textual terms from a list of previously used textual terms no longer in use for activating the functionality at the communication device using the voice recognition algorithm; and cause an output device to provide an indication of the one or more suggested textual terms to use in place of the received textual term.
A patient respiratory device, comprising: means for determining a first estimate of leak conductance which responds relatively quickly to changes in leak conductance, means for determining a second estimate of leak conductance which responds more slowly to changes in leak conductance, and means for determining the mask leak conductance as a function of the first and second estimates of leak conductance. means for determining a first estimate of leak conductance which responds relatively quickly to changes in leak conductance, means for determining a second estimate of leak conductance which responds more slowly to changes in leak conductance, and means for determining the mask leak conductance as a function of the first and second estimates of leak conductance.