mhurhangee/ep-ind-claims huggingface dataset:
A rotary cutter unit for an agricultural mower, comprising a housing that carries a rotary bearing having an axis of rotation, and a rotor assembly that is supported by the bearing for rotation relative to the housing about the axis of rotation, wherein the rotor assembly includes a shaft that extends through the bearing, a drive input element at an input end of the shaft for transmitting rotary drive to the shaft, a drive output element at an output end of the shaft to receive rotary drive from the shaft, a frangible element between the drive input element and the drive output element, which is configured to break when subjected to an excessive load so as to interrupt the transmission of rotary drive between the drive input element and the drive output element, and a retention mechanism that prevents separation of the drive output element from the housing when the frangible element breaks but permits rotation of the drive output element relative to the housing; characterised in that the retention mechanism includes a retention element (46, 48) that extends substantially radially between the drive output element and the housing to restrict axial movement between the drive output element and the housing.
Drive unit for motor vehicle applications, in particular an electromotive opening drive unit as part of a motor vehicle latch, preferably a motor vehicle door latch, comprising an electromotive drive (6, 7, 8) for acting upon a control member, and comprising a manipulation element (13, 14) which can be acted upon manually and which, at least in the engaged position with the electromotive drive (6, 7, 8), is set up to reverse said drive, the manipulation element (13, 14) being designed largely in two parts, with an operation element and an engagement element, the operation element and the engagement element being designed as a one-piece plastics injection molded part, the engagement element having a pinion which can be engaged with a worm wheel of the electromotive drive (6, 7, 8), characterized in that the manipulation element (13, 14) for reversing the electromotive drive (6, 7, 8) must first be transferred from a basic position into the engaged position, the manipulation element (13, 14) being manually transferred from the basic position into the engaged position against a spring force, a rotation of the manipulation element (13, 14) leading to the worm wheel also being rotated as a result as soon as the manipulation element (13, 14) has reached the engaged position.
Method for lowering the content of polycyclic aromatic hydrocarbons (PAHs) in a used lubricant composition, comprising at least a prior step of distillation of the used lubricant composition and then the passing of said used lubricant composition over activated carbon, said method not comprising a solvent extraction step, the quantity of activated carbon applied being between 0.5 and 60 g per litre of lubricant composition.
The use of a lipid peptide of Formula: where R 1 is a C 9-23 aliphatic group, R 2 is a hydrogen atom or a C 1-4 alkyl group optionally having a C 1-2 branched chain, R 3 is a -(CH 2) n -X group, n is a number from 1 to 4, and X is an amino group, a guanidino group, a -CONH 2 group, or a 5-membered ring optionally having 1 to 3 nitrogen atoms, a 6-membered ring optionally having 1 to 3 nitrogen atoms, or a fused heterocycle including a 5-membered ring and a 6-membered ring that optionally has 1 to 3 nitrogen atoms; or a pharmaceutically usable salt of the lipid peptide, as a gelator where R 1 is a C 9-23 aliphatic group, R 2 is a hydrogen atom or a C 1-4 alkyl group optionally having a C 1-2 branched chain, R 3 is a -(CH 2) n -X group, n is a number from 1 to 4, and X is an amino group, a guanidino group, a -CONH 2 group, or a 5-membered ring optionally having 1 to 3 nitrogen atoms, a 6-membered ring optionally having 1 to 3 nitrogen atoms, or a fused heterocycle including a 5-membered ring and a 6-membered ring that optionally has 1 to 3 nitrogen atoms; or a pharmaceutically usable salt of the lipid peptide, as a gelator
A panel sizing machine for sawing at least one, in particular panel-shaped and/or panel-stack-shaped, workpiece, having at least one sawing line along which there is movable at least one sawing device for sawing the workpiece and having a feed region for feeding the workpiece to be sawn to the sawing line, wherein at least one identification device for the attachment of at least one identification, in particular at least one designation, to the, in particular non-sawn, workpiece is arranged in the feed region, wherein the identification device has an applicator, mounted in the feed region in a manner movable relative to the workpiece, for the attachment of the at least one identification to the workpiece and the identification is a label and the applicator is an applicator for the attachment of the label to the workpiece, characterised in that the identification device has a label dispensing device, movably or fixedly mounted, preferably in the feed region, for dispensing labels to the applicator, which label dispensing device preferably has an integrated label encoder or label printer.
An aerosol provision device for generating aerosol for user inhalation, the aerosol provision device comprising: a first aerosol generating area (43a, 44a, 24a) and a second aerosol generating area (43b, 44b, 24b) each for receiving an aerosol precursor material; a mouthpiece from which a user inhales generated aerosol during use, wherein the mouthpiece comprises first and second mouthpiece openings (31a, 31b); a first pathway (33a, 44a) extending from the first aerosol generating area to the first mouthpiece opening for transporting a first aerosol generated from the aerosol precursor material in the first aerosol generating area, wherein the first aerosol is able to exit the aerosol provision device through the first mouthpiece opening; and a second pathway (33b, 44b) extending from the second aerosol generating area to the second mouthpiece opening for transporting a second aerosol generated from the aerosol precursor material in the second aerosol generating area, wherein the second aerosol is able to exit the aerosol provision device through the second mouthpiece opening, and wherein the first and second pathways are physically isolated from one another to prevent mixing of the first and second aerosols as the first and second aerosols are transported along the respective pathways such that the first aerosol and the second aerosol are not permitted to mix within the aerosol provision device during normal use. a first aerosol generating area (43a, 44a, 24a) and a second aerosol generating area (43b, 44b, 24b) each for receiving an aerosol precursor material; a mouthpiece from which a user inhales generated aerosol during use, wherein the mouthpiece comprises first and second mouthpiece openings (31a, 31b); a first pathway (33a, 44a) extending from the first aerosol generating area to the first mouthpiece opening for transporting a first aerosol generated from the aerosol precursor material in the first aerosol generating area, wherein the first aerosol is able to exit the aerosol provision device through the first mouthpiece opening; and a second pathway (33b, 44b) extending from the second aerosol generating area to the second mouthpiece opening for transporting a second aerosol generated from the aerosol precursor material in the second aerosol generating area, wherein the second aerosol is able to exit the aerosol provision device through the second mouthpiece opening, and wherein the first and second pathways are physically isolated from one another to prevent mixing of the first and second aerosols as the first and second aerosols are transported along the respective pathways such that the first aerosol and the second aerosol are not permitted to mix within the aerosol provision device during normal use.
A method for producing a multi-layer anodic coating on aluminium or an alloy thereof which comprises the steps of (i) placing the aluminium or alloy thereof in a first electrolytic solution and applying a current as a steady state current to form a first anodic layer having a barrier region, wherein the first electrolytic solution comprises phosphoric acid; (ii) reducing the applied current to cause a reduction in thickness of the barrier region; and (iii) placing the aluminium or alloy thereof in a second electrolytic solution and applying a current to form a second anodic layer, wherein the second electrolytic solution is selected from the group consisting of sulphuric acid solution, oxalic acid solution, tartaric acid solution, boric acid solution and mixtures thereof, wherein the multi-layer anodic coating comprises a first anodic layer and a second anodic layer, with the first anodic layer comprising pores having a diameter in the range 50 to 150 nm, preferably in the range 50 to 100 nm, most preferably in the range 75 to 100 nm; and the second anodic layer comprising pores having a diameter in the range 10 to 25 nm, preferably in the range 15 to 25 nm, and wherein step (i) and step (ii) define a first anodising process having a final forming voltage and step (iii) defines a second anodising process having an initial forming voltage; wherein following step (ii), the final forming voltage of the first anodising process is less than the initial forming voltage of the second anodising process; and wherein the final forming voltage after step (ii) is in the range 2V to 10V. (i) placing the aluminium or alloy thereof in a first electrolytic solution and applying a current as a steady state current to form a first anodic layer having a barrier region, wherein the first electrolytic solution comprises phosphoric acid; (ii) reducing the applied current to cause a reduction in thickness of the barrier region; and (iii) placing the aluminium or alloy thereof in a second electrolytic solution and applying a current to form a second anodic layer, wherein the second electrolytic solution is selected from the group consisting of sulphuric acid solution, oxalic acid solution, tartaric acid solution, boric acid solution and mixtures thereof,
A method for communicating control information for aggregated carriers, comprising: receiving one or more assignments for a plurality of aggregated carriers (726, 730), wherein at least one of the plurality of aggregated carriers is a time division duplexing, TDD, carrier having a different subframe configuration than at least another one of the plurality of aggregated carriers; determining one of the plurality of aggregated carriers over which to communicate control information for the plurality of aggregated carriers based at least in part on a subframe availability of the plurality of aggregated carriers, wherein the determining the one of the plurality of aggregated carriers comprises: determining whether a carrier in the plurality of aggregated carriers includes uplink subframes that are a superset of additional uplink subframes of remaining carriers in the plurality of aggregated carriers; and selecting the carrier as the one of the plurality of aggregated carriers over which to communicate the control information upon a determination that the carrier includes the uplink subframes; and communicating via at least one subframe the control information for the plurality of aggregated carriers over the determined one of the plurality of aggregated carriers. receiving one or more assignments for a plurality of aggregated carriers (726, 730), wherein at least one of the plurality of aggregated carriers is a time division duplexing, TDD, carrier having a different subframe configuration than at least another one of the plurality of aggregated carriers; determining one of the plurality of aggregated carriers over which to communicate control information for the plurality of aggregated carriers based at least in part on a subframe availability of the plurality of aggregated carriers, wherein the determining the one of the plurality of aggregated carriers comprises: determining whether a carrier in the plurality of aggregated carriers includes uplink subframes that are a superset of additional uplink subframes of remaining carriers in the plurality of aggregated carriers; and selecting the carrier as the one of the plurality of aggregated carriers over which to communicate the control information upon a determination that the carrier includes the uplink subframes; and communicating via at least one subframe the control information for the plurality of aggregated carriers over the determined one of the plurality of aggregated carriers. determining whether a carrier in the plurality of aggregated carriers includes uplink subframes that are a superset of additional uplink subframes of remaining carriers in the plurality of aggregated carriers; and selecting the carrier as the one of the plurality of aggregated carriers over which to communicate the control information upon a determination that the carrier includes the uplink subframes; and communicating via at least one subframe the control information for the plurality of aggregated carriers over the determined one of the plurality of aggregated carriers.
Electrical switch comprising a switch base for accommodating electrical connection contacts and electrical switching elements and also mechanical switching elements which operate the electrical switching elements by the said mechanical switching elements transmitting a switching movement to the said electrical switching elements, and also a covering frame and a rocker switch or pushbutton which is mounted within the covering frame, and also a carrying ring for fastening the switch base in a mounting opening, wherein the rocker switch or the pushbutton are pivotably mounted on a frame-like clamping piece, and the clamping piece is mounted on the carrying ring, characterized in that the clamping piece, by means of radially elastic clamping projections in the carrying ring, can be rotated about a mid-perpendicular on an opening plane of a carrying ring opening, which is surrounded by the carrying ring, in relation to the carrying ring and/or can be laterally displaced in relation to the mid-perpendicular, without the clamping effect, that is to say the force-fitting connection, between the carrying ring and the clamping projections being given up.
A gas turbine system, comprising compressor oversized in airflow capacity configured to supply compressed air for use during combustion in the gas turbine one or more variable blade rows configured to control the airflow rate into said compressor, said variable blade rows being movable between a first position wherein said one or more variable blade rows provide a maximum airflow rate into said compressor and a second position wherein said one or more variable blade rows provide a decreased airflow rate into said compressor; a controller configured to control the position of said one or more variable blade rows in a nominal mode, a controlled output mode, and a frequency compensation mode, the controller configured to control the position of said one or more variable blade rows according to a nominal variable blade row position schedule, said nominal variable blade row position schedule specifying nominal positions for said one or more variable blade rows such that said one or more variable blade rows provide a nominal airflow rate into said compressor, the nominal airflow rate being less than the maximum airflow rate; characterized in that pursuant to a request said gas turbine system is operable in either a controlled output mode or a frequency compensation mode, said controller configured to adjust the position of the one or more variable blade rows from the nominal positions specified in the nominal variable blade row schedule to operate said gas turbine system in the controlled output mode or in the frequency compensation mode, wherein when said gas turbine is operated in the controlled output mode, said controller is configured to adjust the position of said one or more variable blade rows to increase or decrease airflow into said compressor to achieve a power output requested by an Operator.
A composition comprising an effective amount of an aqueous extract of Eurycoma longifolia for use in the prevention of infectious disease by enhancing the immune functions, wherein the extract comprises active ingredients, which include eurycomanone, protein, polysaccharide and glycosaponin in appropriate amounts; and wherein the effective amount of the extract is from 10 mg to 2000 mg.
A control device for a robot including: a robot main body; an arm coupled to the robot main body and including a plurality of links; driving units configured to drive the plurality of links; and an angle sensor configured to detect a driving amount of the driving units, the control device comprising: an inertia sensor set in a damping position, where vibration of the arm can be suppressed, and configured to detect at least one of acceleration and an angular velocity in the damping position; a first calculating unit configured to calculate a first arm speed in the damping position from at least one of the acceleration and the angular velocity in the damping position detected by the inertia sensor; a second calculating unit configured to calculate a driving speed from the driving amounts of the driving units detected by the angle sensor and calculates a second arm driving speed in the damping position on the basis of a Jacobian-matrix corresponding to the driving speed and the damping position; a third calculating unit configured to calculate a third arm speed on the basis of the first arm speed and the second arm speed; a fourth calculating unit configured to calculate, on the basis of the third arm speed, a correction speed for each of the driving units that drive the links present between the robot main body and the damping position according to an inverse Jacobian-matrix (J -1); and a control unit configured to control, on the basis of the driving amount, the driving speed, and the correction speed, the driving units that drive the links present between the robot main body and the damping position. an inertia sensor set in a damping position, where vibration of the arm can be suppressed, and configured to detect at least one of acceleration and an angular velocity in the damping position; a first calculating unit configured to calculate a first arm speed in the damping position from at least one of the acceleration and the angular velocity in the damping position detected by the inertia sensor; a second calculating unit configured to calculate a driving speed from the driving amounts of the driving units detected by the angle sensor and calculates a second arm driving speed in the damping position on the basis of a Jacobian-matrix corresponding to the driving speed and the damping position; a third calculating unit configured to calculate a third arm speed on the basis of the first arm speed and the second arm speed; a fourth calculating unit configured to calculate, on the basis of the third arm speed, a correction speed for each of the driving units that drive the links present between the robot main body and the damping position according to an inverse Jacobian-matrix (J -1); and a control unit configured to control, on the basis of the driving amount, the driving speed, and the correction speed, the driving units that drive the links present between the robot main body and the damping position.
A control device for an internal combustion engine mounted in a vehicle, said vehicle including a rotating electric machine (140, 142) for causing said vehicle to run, and a power storage device for supplying electric power to said rotating electric machine (140, 142), said control device comprising a detection unit (124A, 308, 360) for detecting a state of said vehicle; and a control unit for executing automatic stop control of said internal combustion engine and idle priority control forcibly shifting a state of said internal combustion engine to an idle state, based on the state of said vehicle, and characterized in that, if said automatic stop control is prohibited and prohibition of said automatic stop control will continue for not less than a first time period, said control unit causes said idle priority control not to be executed, and said control unit determines said first time period based on the state of the vehicle.
A cyclonic separating device, comprising: a dust cup; a first cyclonic separating unit; and a second cyclonic separating unit, wherein both the first cyclonic separating unit and the second cyclonic separating unit are located in the dust cup, the first cyclonic separating unit is fitted over an outside of the second cyclonic separating unit, characterized in that the second cyclonic separating unit comprises a first cyclone separator group and a second cyclone separator group, the first cyclone separator group comprises a plurality of first cyclones arranged in a ring shape, dust falling ends of the plurality of first cyclones define an accommodation space therebetween, the second cyclone separator group comprises a plurality of second cyclones arranged in a ring shape, each second cyclone partially extends into the accommodation space, wherein each of the first cyclones and the second cyclones has a multi-section cone structure, each first cyclone comprises a first cone section, a second cone section and a third cone section sequentially connected; airflow sucked in each first cyclone is sequentially separated by the first cone section, the second cone section and the third cone section, and dust in the airflow is discharged from the third cone section; a central axis of the first cone section is parallel to a longitudinal axis of the dust cup; and an angle between a central axis of the second cone section and a central axis of the third cone section is 5°-20°. a dust cup; a first cyclonic separating unit; and a second cyclonic separating unit, wherein both the first cyclonic separating unit and the second cyclonic separating unit are located in the dust cup, the first cyclonic separating unit is fitted over an outside of the second cyclonic separating unit, characterized in that the second cyclonic separating unit comprises a first cyclone separator group and a second cyclone separator group, the first cyclone separator group comprises a plurality of first cyclones arranged in a ring shape, dust falling ends of the plurality of first cyclones define an accommodation space therebetween, the second cyclone separator group comprises a plurality of second cyclones arranged in a ring shape, each second cyclone partially extends into the accommodation space, wherein each of the first cyclones and the second cyclones has a multi-section cone structure, each first cyclone comprises a first cone section, a second cone section and a third cone section sequentially connected; airflow sucked in each first cyclone is sequentially separated by the first cone section, the second cone section and the third cone section, and dust in the airflow is discharged from the third cone section; a central axis of the first cone section is parallel to a longitudinal axis of the dust cup; and an angle between a central axis of the second cone section and a central axis of the third cone section is 5°-20°.