mhurhangee/patent-ind-claim-en huggingface dataset:
A dish washer comprising: a main body ; a tub positioned inside the main body; and an accommodating container configured to be positioned inside the tub, wherein the accommodating container comprises: a loading frame including a loader configured to support an object that is to be washed; a roller frame extending from the loading frame to form an arrangement space between the loading frame and the roller frame; a roller configured to be rotatable in the arrangement space to move the loading frame into and out of the tub; and a shaft configured to support the roller, the shaft including a first end supported by the loading frame and a second end opposite to the first end and supported by the roller frame, characterized in that the roller frame comprises: an extension frame configured to extend as a pair of extension frames from the loading frame; and a support frame connected to the extension frame to form the arrangement space; wherein the shaft is disposed between the pair of extension frames and supported by the roller frame in the arrangement space. a main body ; a tub positioned inside the main body; and an accommodating container configured to be positioned inside the tub, wherein the accommodating container comprises: a loading frame including a loader configured to support an object that is to be washed; a roller frame extending from the loading frame to form an arrangement space between the loading frame and the roller frame; a roller configured to be rotatable in the arrangement space to move the loading frame into and out of the tub; and a shaft configured to support the roller, the shaft including a first end supported by the loading frame and a second end opposite to the first end and supported by the roller frame, characterized in that the roller frame comprises: an extension frame configured to extend as a pair of extension frames from the loading frame; and a support frame connected to the extension frame to form the arrangement space; wherein the shaft is disposed between the pair of extension frames and supported by the roller frame in the arrangement space. a loading frame including a loader configured to support an object that is to be washed; a roller frame extending from the loading frame to form an arrangement space between the loading frame and the roller frame; a roller configured to be rotatable in the arrangement space to move the loading frame into and out of the tub; and a shaft configured to support the roller, the shaft including a first end supported by the loading frame and a second end opposite to the first end and supported by the roller frame, characterized in that the roller frame comprises: an extension frame configured to extend as a pair of extension frames from the loading frame; and a support frame connected to the extension frame to form the arrangement space; wherein the shaft is disposed between the pair of extension frames and supported by the roller frame in the arrangement space.
Tourbillon mechanism for a timepiece movement, comprising a balance mechanism , an escapement mechanism and a carriage mounted in a structure of the timepiece movement in rotation about a tourbillon axis (Z0), the balance mechanism comprising a spring and a balance wheel mounted in the carriage to pivot about said tourbillon axis, the escapement mechanism comprising an escape wheel with teeth and a pallet-lever comprising pallet-stones configured to engage said teeth, the pallet-lever being mounted in the carriage and coupled in rotation to the carriage by means of a pivot device , wherein the escape wheel encircles the tourbillon axis and is attached to or integral with said structure of the timepiece movement, which mechanism is characterized in that the pivot device is configured to pivot elastically and to support the pallet-lever, and in that the pivot device includes one or more elastic arms connecting the pallet-lever to an anchoring area attached to, or integral with the carriage.
Fuel supply system for an internal combustion engine (3.1) of a motor vehicle, having at least one fuel tank (1.1, 1.4) for storing the fuel and having at least one cooling device for fuel cooling, which is separate from an engine cooling arrangement and which comprises a compressor (2.1), a condenser (2.3) and at least one evaporator (2.9, 2.6, 2.11), wherein the evaporator (2.9, 2.6, 2.11) of the cooling device is arranged in the fuel tank (1.1, 1.4), characterized in that an electrically controllable valve (2.8, 2.5, 2.10) is connected upstream of the at least one evaporator (2.9, 2.6, 2.11), such that the at least one fuel tank (1.1, 1.4) and/or an interior compartment of the vehicle can be cooled in temperature-dependent fashion by means of a measuring and control device , and in that the fuel supply system comprises at least two fuel tanks (1.1, 1.4), wherein the first fuel tank (1.1) is a main fuel tank which can be filled from the outside with fuel, and the second fuel tank (1.4), which is connected to the first fuel tank (1.1) via a first fuel line (1.2), is an extraction tank from which the fuel can be fed to the internal combustion engine (3.1).
A work vehicle comprising a working device installed on a frame structure constituting a vehicle body and a cab mounted on the frame structure , wherein the cab is provided with a driver's seat mounted on a floorboard , a pair of pillars extending in a vertical direction between a ceiling and the floorboard at left and right sides in front of the driver's seat, an operating lever for operating the working device , and a switchbox having an operating surface in which multiple operating switches (S) are arranged, wherein the operating lever is placed between one pillar of the pair of pillars and the driver's seat in left and right direction of the cab ; the switchbox is installed to the one pillar with its long side direction being along the pillar extension direction; and the operating surface is oriented toward a direction along an imaginary line (IL) that passes through the center in its short side direction and extends perpendicular to the surface, the imaginary line (IL) intersecting a backrest of the driver's seat and a center line (C) with respect to the left and right direction of the cab , characterized in that one side of the switchbox in a short side direction has a guide formed to overhang out along the long side direction. wherein the operating lever is placed between one pillar of the pair of pillars and the driver's seat in left and right direction of the cab ; the switchbox is installed to the one pillar with its long side direction being along the pillar extension direction; and the operating surface is oriented toward a direction along an imaginary line (IL) that passes through the center in its short side direction and extends perpendicular to the surface, the imaginary line (IL) intersecting a backrest of the driver's seat and a center line (C) with respect to the left and right direction of the cab , characterized in that one side of the switchbox in a short side direction has a guide formed to overhang out along the long side direction.
Method of controlling a gear cutting machine having at least one tool for cutting gears into a workpiece clamped in a workpiece mount, wherein the machine control carries out a three-dimensional collision monitoring during the gear cutting machining process, characterized in that the collision monitoring is active during a CNC controlled gear cutting process and during a workpiece change and/or during a tool change and a predictive collision monitoring takes place in that future movement parameters of the machine components are monitored for collisions, wherein future movement parameters are derived from the program code of the machine control.
A vehicle test system that tests performance of a vehicle (V) or a part of the vehicle (V) by a so-called coast-down method, the vehicle test system comprising the parts of: (a) an actual running data acquisition part adapted to acquire actual running data from an actual running test vehicle when the test vehicle runs on a road, wherein the actual running data includes at least time-series data on vehicle speed during a coast-down time; (b) a running resistance calculation part adapted to, on a basis of the actual running data, calculate on the basis of a so-called coast-down method a running resistance used to test the performance of the vehicle (V) or the part of the vehicle; and (c) a running resistance data setting part adapted to set the running resistance in a dynamometer adapted to provide a resistance to the vehicle (V) or the part of the vehicle; characterized by (d) an output part adapted to, before part (c) sets the running resistance in the dynamometer , viewably output the running resistance to a user. (a) an actual running data acquisition part adapted to acquire actual running data from an actual running test vehicle when the test vehicle runs on a road, wherein the actual running data includes at least time-series data on vehicle speed during a coast-down time; (b) a running resistance calculation part adapted to, on a basis of the actual running data, calculate on the basis of a so-called coast-down method a running resistance used to test the performance of the vehicle (V) or the part of the vehicle; and (c) a running resistance data setting part adapted to set the running resistance in a dynamometer adapted to provide a resistance to the vehicle (V) or the part of the vehicle; characterized by (d) an output part adapted to, before part (c) sets the running resistance in the dynamometer , viewably output the running resistance to a user.
A method in a mobile communication network infrastructure, the method comprising: implementing core network and radio access network parts of the mobile communication network utilising a single layer of virtualized network function, VNF, components, where a given VNF component is designated to serve a given user equipment; routing at least part of traffic directed to given user equipment through a routing arrangement comprising a set of routers to the VNF component serving the user equipment; and when the VNF component serving the user equipment is changed, the routing arrangement is updated with the change. implementing core network and radio access network parts of the mobile communication network utilising a single layer of virtualized network function, VNF, components, where a given VNF component is designated to serve a given user equipment; routing at least part of traffic directed to given user equipment through a routing arrangement comprising a set of routers to the VNF component serving the user equipment; and when the VNF component serving the user equipment is changed, the routing arrangement is updated with the change.
An electrochromic (EC) window comprising: (i) a monolithic EC device on a transparent substrate, the monolithic EC device comprising first and second transparent conducting layers and an electrochromic stack between the first and second conducting layers; and (ii) a resistive zone between each of two or more tinting zones in the monolithic EC device, each of said two or more tinting zones configured for operation independent of the others; characterised in that the resistive zone has higher electrical resistivity than the remaining portions of the monolithic EC device and is configured to tint, and wherein the resistive zone is formed by removing between about 10% and about 90% of the uppermost material in the second transparent conducting layer along the resistive zone. (i) a monolithic EC device on a transparent substrate, the monolithic EC device comprising first and second transparent conducting layers and an electrochromic stack between the first and second conducting layers; and (ii) a resistive zone between each of two or more tinting zones in the monolithic EC device, each of said two or more tinting zones configured for operation independent of the others;
A system for tracking a velocity of an object , comprising: a first tracking device aimed so that a first field of view of the first tracking device covers at least a portion of a target volume into which the object is to be launched from a launch location ; and a processor configured to: determine, based on data received from the first tracking device , a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state. a first tracking device aimed so that a first field of view of the first tracking device covers at least a portion of a target volume into which the object is to be launched from a launch location ; and a processor configured to: determine, based on data received from the first tracking device , a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state. determine, based on data received from the first tracking device , a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state.
A method of making a three-dimensional object from a light polymerizable resin, comprising the steps of: (a) producing an object adhered to a carrier plate by light polymerization of said resin in a bottom-up stereolithography process; (i) said object comprising a carrier plate adhesion portion, a main body portion, and a circumferential boundary portion included in said carrier plate adhesion portion and optionally extending into at least part of said main body portion; (ii) said stereolithography process including overexposing said boundary portion, as compared to the exposure of said adhesion portion or main body portion, with light to enhance adhesion of said object to said carrier plate during the bottom-up stereolithography process; (b) optionally cleaning said object; and then (c) optionally baking said object to produce a further cured three-dimensional object. (a) producing an object adhered to a carrier plate by light polymerization of said resin in a bottom-up stereolithography process; (i) said object comprising a carrier plate adhesion portion, a main body portion, and a circumferential boundary portion included in said carrier plate adhesion portion and optionally extending into at least part of said main body portion; (ii) said stereolithography process including overexposing said boundary portion, as compared to the exposure of said adhesion portion or main body portion, with light to enhance adhesion of said object to said carrier plate during the bottom-up stereolithography process; (i) said object comprising a carrier plate adhesion portion, a main body portion, and a circumferential boundary portion included in said carrier plate adhesion portion and optionally extending into at least part of said main body portion; (ii) said stereolithography process including overexposing said boundary portion, as compared to the exposure of said adhesion portion or main body portion, with light to enhance adhesion of said object to said carrier plate during the bottom-up stereolithography process; (b) optionally cleaning said object; and then (c) optionally baking said object to produce a further cured three-dimensional object.
A hose for use with a surface cleaning apparatus , the hose comprising: a support structure extending along a length of the hose , wherein the support structure includes one or more support members at least partially surrounded by a layer of cover material to form one or more collapsible sections , wherein the hose includes an interior surface proximate a passageway of the hose for receiving dirty air and an exterior surface opposite the interior surface , the hose having an outer radius of R1; wherein the support structure is compressible to transition the hose into a storage configuration to shorten the overall length of the hose , and an in-use configuration to increase the overall length of the hose , and wherein each of the one or more collapsible sections extends a distance D1 into the passageway in the storage configuration; charcterized in that the support structure includes a plurality of retaining members for releasably locking the hose into the storage configuration. a support structure extending along a length of the hose , wherein the support structure includes one or more support members at least partially surrounded by a layer of cover material to form one or more collapsible sections , wherein the hose includes an interior surface proximate a passageway of the hose for receiving dirty air and an exterior surface opposite the interior surface , the hose having an outer radius of R1; wherein the support structure is compressible to transition the hose into a storage configuration to shorten the overall length of the hose , and an in-use configuration to increase the overall length of the hose , and wherein each of the one or more collapsible sections extends a distance D1 into the passageway in the storage configuration; charcterized in that the support structure includes a plurality of retaining members for releasably locking the hose into the storage configuration.
An atomic magnetometer system, including: a variable magnetic field source configured to provide an oscillating primary magnetic field to cause a sample to produce a secondary magnetic field; an atomic magnetometer for detecting the secondary magnetic field; the atomic magnetometer including: an atomic specimen; a pump and probe subsystem configured to pump the atomic specimen to create a polarisation and to probe atomic coherence precession within the atomic specimen with a probe beam; a detector configured to detect the probe beam to produce a detection signal having an oscillation frequency; the system being configured to drive the variable magnetic field source in dependence on the detection signal with a frequency corresponding to the oscillation frequency of the detection signal. a variable magnetic field source configured to provide an oscillating primary magnetic field to cause a sample to produce a secondary magnetic field; an atomic magnetometer for detecting the secondary magnetic field; the atomic magnetometer including: an atomic specimen; a pump and probe subsystem configured to pump the atomic specimen to create a polarisation and to probe atomic coherence precession within the atomic specimen with a probe beam; a detector configured to detect the probe beam to produce a detection signal having an oscillation frequency; an atomic specimen; a pump and probe subsystem configured to pump the atomic specimen to create a polarisation and to probe atomic coherence precession within the atomic specimen with a probe beam; a detector configured to detect the probe beam to produce a detection signal having an oscillation frequency; the system being configured to drive the variable magnetic field source in dependence on the detection signal with a frequency corresponding to the oscillation frequency of the detection signal.
A method for wireless communication, comprising: determining, by a first device associated with a first radio access technology, RAT, that a shared radio frequency spectrum is shared with a second device of a second RAT; determining, based at least in part on the determination that the shared radio frequency spectrum is shared, an energy detection threshold for a clear channel assessment CCA; identifying a number of CCA slots for which the shared radio frequency spectrum is available before the first device accesses the shared radio frequency spectrum; performing an CCA, CCA, using the determined energy detection threshold and the identified number of CCA slots; and characterised by performing the CCA in a last CCA slot of increased duration. determining, by a first device associated with a first radio access technology, RAT, that a shared radio frequency spectrum is shared with a second device of a second RAT; determining, based at least in part on the determination that the shared radio frequency spectrum is shared, an energy detection threshold for a clear channel assessment CCA; identifying a number of CCA slots for which the shared radio frequency spectrum is available before the first device accesses the shared radio frequency spectrum; performing an CCA, CCA, using the determined energy detection threshold and the identified number of CCA slots; and characterised by performing the CCA in a last CCA slot of increased duration.