mhurhangee/ep-ind-claims huggingface dataset:
A method for braking a compaction machine operated by an electric motor, in particular a tandem roller, single-drum roller, rubber-tired roller or waste compactor, comprising the steps of: a) directly or indirectly driving a travel unit using an electric motor; b) determining an actual value of an operating parameter, the operating parameter being a travel speed of the compaction machine; c) determining a target value of the operating parameter; d) comparing the actual value of the operating parameter with the target value of the operating parameter; e) generating a braking torque by a hydraulic throttle in a brake hydraulic circuit, the brake hydraulic circuit comprising a brake hydraulic pump, if the actual value of the operating parameter deviates from the target value, in particular is greater than the target value of the operating parameter, the throttle being arranged in a hydraulic line with a hydraulic pump; f) transmitting the braking torque via a mechanical coupling from the brake hydraulic pump to a device directly or indirectly driving the travel unit. a) directly or indirectly driving a travel unit using an electric motor; b) determining an actual value of an operating parameter, the operating parameter being a travel speed of the compaction machine; c) determining a target value of the operating parameter; d) comparing the actual value of the operating parameter with the target value of the operating parameter; e) generating a braking torque by a hydraulic throttle in a brake hydraulic circuit, the brake hydraulic circuit comprising a brake hydraulic pump, if the actual value of the operating parameter deviates from the target value, in particular is greater than the target value of the operating parameter, the throttle being arranged in a hydraulic line with a hydraulic pump; f) transmitting the braking torque via a mechanical coupling from the brake hydraulic pump to a device directly or indirectly driving the travel unit.
Writing instrument comprising a casing extending in a longitudinal direction and having a radial direction, the writing instrument comprising a first writing tip and a second writing tip, which tips are concentric, the second writing tip being arranged around the first writing tip, each writing tip (20, 22) being received in the casing and being able to assume a use configuration in which the writing tip (20, 22) projects from the casing, the casing comprising, at a longitudinal end, a nose that is deformable at least in the radial direction, the deformable nose comprising at least one slot extending in the longitudinal direction, the writing instrument being characterized in that the deformable nose is not deformed when only the first writing tip is in the use configuration and the deformable nose is deformed when the second writing tip is in the use configuration and the deformable nose comprises an exit opening for the first and second writing tips (20, 22), the diameter of the exit opening being greater than the diameter of the first writing point and less than the diameter of the second writing tip.
A method for operating a geodetic instrument (100A,100B,100C) comprising an optical source for assisting a user in aiming at a target in a scene and an imaging device, wherein the imaging device and the optical source share a common optical channel within the geodetic instrument, said method comprising: causing emission, by the optical source, of optical pulses towards the target; causing capture, by the imaging device, of images of the scene using a frame sequence, wherein a frame of said frame sequence includes an exposure time during which the imaging device is exposed to light from the scene, and wherein the frame sequence comprises a first subset of frames; synchronizing emission of the optical pulses to the frame sequence for obtaining data from images in which the optical pulses are absent, wherein the synchronizing comprises causing the optical source to be in a non-operating state during the exposure time of each frame of the first subset; characterized in that the method further comprises: processing data pertaining only to each frame of the first subset of frames; and causing the processed data pertaining only to each frame of the first subset of frames to be displayed as frames on a display. causing emission, by the optical source, of optical pulses towards the target; causing capture, by the imaging device, of images of the scene using a frame sequence, wherein a frame of said frame sequence includes an exposure time during which the imaging device is exposed to light from the scene, and wherein the frame sequence comprises a first subset of frames; synchronizing emission of the optical pulses to the frame sequence for obtaining data from images in which the optical pulses are absent, wherein the synchronizing comprises causing the optical source to be in a non-operating state during the exposure time of each frame of the first subset; characterized in that the method further comprises: processing data pertaining only to each frame of the first subset of frames; and causing the processed data pertaining only to each frame of the first subset of frames to be displayed as frames on a display. processing data pertaining only to each frame of the first subset of frames; and causing the processed data pertaining only to each frame of the first subset of frames to be displayed as frames on a display.
Sports and/or orthopaedic footwear comprising an insole (10,10a,10b), an upper formed by a top-upper part and a bottom-upper part joined to the insole, and an articulation device for relative articulation of the insole/upper, said articulation device comprising: - a first ring which has a bottom-upper front arm and a bottom-upper rear arm which are joined to said bottom-upper part; - a second ring which has an arm adapted to be fixed to the top-upper part, said second ring having at least two diametrically opposite eyelets extending over a predefined annular section of the circumference of the second ring itself; - an anti-friction annular body arranged between said first ring and second ring; - an outer cover for closing the articulation device, provided with stops each projecting outwards in the transverse direction (Y-Y) and designed to be inserted in a suitable angular position inside a respective one of the eyelets of the second ring; wherein said first ring has two diametrically opposite, radial, inner seats for receiving a respective pin with female thread; wherein the annular body has two diametrically opposite holes with a diameter such as to allow a respective one of said pins to pass through, wherein the outer cover is provided with two diametrically opposite holes in turn aligned in the transverse direction (Y-Y) with the holes of the annular body and the inner seats of the first ring and with an inner diameter such as to allow the insertion of a respective screw suitable for engagement with the female thread of the respective pin; and wherein, in use, the articulation device is in a position substantially aligned with one of the malleoli of the user and includes it in the transverse direction within its thickness. - a first ring which has a bottom-upper front arm and a bottom-upper rear arm which are joined to said bottom-upper part; - a second ring which has an arm adapted to be fixed to the top-upper part, said second ring having at least two diametrically opposite eyelets extending over a predefined annular section of the circumference of the second ring itself; - an anti-friction annular body arranged between said first ring and second ring; - an outer cover for closing the articulation device, provided with stops each projecting outwards in the transverse direction (Y-Y) and designed to be inserted in a suitable angular position inside a respective one of the eyelets of the second ring; wherein said first ring has two diametrically opposite, radial, inner seats for receiving a respective pin with female thread;
A wall radiator comprising: - a heating body, which comprises an upper horizontal header, hydraulically connected to a lower horizontal header by means of a plurality of vertical pipes, arranged on a first row and on a second row facing each other; - a radiant plate integral with said heating body for facing a room to be heated; - support means which can be mounted on a wall for supporting said heating body; and defining a first space between said second row of said vertical pipes and said said wall; - ventilation means, suitable for drawing in ambient air, to blow it towards said heating body, so as to introduce it once again into the room as hot air; wherein there is provided a first channel, used for inflow of the air to be heated, defined by said first space, and a second channel, used to heat the air and for outflow of the heated air towards the room, defined by a second space comprised between said first row and said second row of vertical pipes; said first channel being vertical and substantially parallel to said second channel, which is also vertical, and said ventilation means being arranged astride said second row between said first channel and said second channel; and wherein the ambient air is drawn in from above and from below and, once it has been heated by said heating body, is blown laterally into the room to be heated (,) by said ventilation means; said wall radiator being characterised in that the ambient air enters said first channel vertically from at least one upper inlet and from at least one lower inlet; whereas the air heated by said heating body flows out horizontally through at least one lateral passage (76, 77). - a heating body, which comprises an upper horizontal header, hydraulically connected to a lower horizontal header by means of a plurality of vertical pipes, arranged on a first row and on a second row facing each other; - a radiant plate integral with said heating body for facing a room to be heated; - support means which can be mounted on a wall for supporting said heating body; and defining a first space between said second row of said vertical pipes and said said wall; - ventilation means, suitable for drawing in ambient air, to blow it towards said heating body, so as to introduce it once again into the room as hot air;
Tool holder for attaching a tool, in particular a measuring sensor onto a machine tool with an interface to a spindle of a machine tool, characterised in that the tool holder, as viewed from the interface for the spindle from a point which is located at a distance "A" from a spindle nose, comprises a material portion, which is made from a material which differs from the basic material of the tool holder by having a lower coefficient of linear expansion α, and extends with at least one continuous section perpendicular to the tool holder axis through the tool holder over more than 50% of a projected intersection in axial direction, and forms a thermal decoupling between the tool-side section of the tool holder as well as a tool mounted therein and the tool spindle for reducing a change in length on the basis of an input of heat from the comparatively warmer tool spindle.
An underwater docking station for communication with one or more underwater devices, the underwater docking station comprising: - a support structure comprising a base portion, a top portion and in particular a mechanism interposed between the base portion and the top portion to allow moving the base portion away from the top portion defining an housing space for receiving the underwater device between the base portion and the top portion and to allow reducing or removing the housing space defining a compact configuration of the underwater docking station; - an optical communication module configured for communication with said one or more underwater devices along an optical communication axis; - a coupling arrangement mounting the optical communication module to the support structure; - an actuator active on the optical communication module to move the optical communication axis between at least one first operative position and one second operative position, wherein, in the first operative position, the communication axis is directed along a first communication direction and, in the second operative position, the communication axis is directed along a second communication direction different from the first communication direction; - a control unit connected to: ∘ the optical communication module to manage a communication with said one or more underwater devices, and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position. - a support structure comprising a base portion, a top portion and in particular a mechanism interposed between the base portion and the top portion to allow moving the base portion away from the top portion defining an housing space for receiving the underwater device between the base portion and the top portion and to allow reducing or removing the housing space defining a compact configuration of the underwater docking station; - an optical communication module configured for communication with said one or more underwater devices along an optical communication axis; - a coupling arrangement mounting the optical communication module to the support structure; - an actuator active on the optical communication module to move the optical communication axis between at least one first operative position and one second operative position, wherein, in the first operative position, the communication axis is directed along a first communication direction and, in the second operative position, the communication axis is directed along a second communication direction different from the first communication direction; - a control unit connected to: ∘ the optical communication module to manage a communication with said one or more underwater devices, and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position. ∘ the optical communication module to manage a communication with said one or more underwater devices, and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position.
A tapered roller bearing (1, 1') which is to be used for a pilot portion or an idler portion of a synchronous mesh-type transmission in which a component corresponding to a bearing outer ring is formed of a gear, wherein a ratio L/Dw of a length of a tapered roller serving as a rolling element to a roller diameter (Dw) is set to 1.7 or more, characterized in that a rolling surface of the tapered roller comprises a straight portion in a center portion of the rolling surface in an axial direction and crowning portions (6b, 6c) extending from the straight portion to both end portions, wherein the crowning portions (6b, 6c) are each formed of logarithmic crowning, wherein a ratio Dr/Dw of a drop amount (Dr) of a crowning portion (6b, 6c) of the rolling surface to the roller diameter (Dw) falls within a range of from 0.003 to 0.03.
A super-cooled water-droplet size measurement system comprising: a housing having a convex exterior surface, the housing configured to be mounted to an aircraft so as to expose the convex exterior surface to an airstream of the aircraft in flight; an ice detector (16, 44) configured to detect ice accretion at a plurality of test locations within a testing region of the convex exterior surface, wherein ice accretes, in conducive conditions, on at least an ice-accretion portion of the testing region; and a boundary locator configured to determine a specific one of the plurality of test locations within the testing region of the convex exterior surface, the determined specific one of the plurality of test locations corresponding to a boundary that separates the ice-accretion portion of the testing region and an ice-free portion of the testing region in conditions that include the atmosphere having super-cooled water droplets up to a predetermined maximum size, and characterized by further comprising a gimballed mounting mechanism that facilitates orientation of the housing such that a leading edge of the housing can be directed toward the airstream further comprising one or more fins coupled to an aft end of the housing. a housing having a convex exterior surface, the housing configured to be mounted to an aircraft so as to expose the convex exterior surface to an airstream of the aircraft in flight; an ice detector (16, 44) configured to detect ice accretion at a plurality of test locations within a testing region of the convex exterior surface, wherein ice accretes, in conducive conditions, on at least an ice-accretion portion of the testing region; and a boundary locator configured to determine a specific one of the plurality of test locations within the testing region of the convex exterior surface, the determined specific one of the plurality of test locations corresponding to a boundary that separates the ice-accretion portion of the testing region and an ice-free portion of the testing region in conditions that include the atmosphere having super-cooled water droplets up to a predetermined maximum size, and characterized by further comprising a gimballed mounting mechanism that facilitates orientation of the housing such that a leading edge of the housing can be directed toward the airstream further comprising one or more fins coupled to an aft end of the housing.
A compound selected from Formula 1C, an N -oxide and salt thereof, wherein M is C 1 -C 3 alkyl, C 1 -C 3 haloalkyl, hydroxy, C 1 -C 4 alkoxy, C 1 -C 2 haloalkoxy, C 1 -C 4 alkylamino, C 2 -C 8 dialkylamino, 1-piperidinyl, 1-pyrrolidinyl or 4-morpholinyl; and J 1 is provided that the compound is not 1-[ -4,5-dihydro-5-phenyl-3-isoxazolyl]ethanone. M is C 1 -C 3 alkyl, C 1 -C 3 haloalkyl, hydroxy, C 1 -C 4 alkoxy, C 1 -C 2 haloalkoxy, C 1 -C 4 alkylamino, C 2 -C 8 dialkylamino, 1-piperidinyl, 1-pyrrolidinyl or 4-morpholinyl; and J 1 is provided that the compound is not 1-[ -4,5-dihydro-5-phenyl-3-isoxazolyl]ethanone.
A surge protection device comprising a plurality of surge arresters and an, in particular thermal, disconnecting device respectively associated therewith, along with an error and status indicator, which is in the form of a movable displacement element pretensioned by spring force and includes an indication surface and an actuating surface for a remote signaling device, the triggering of the error and status indicator being effected indirectly by means of a blocking element (1; 2; 3), the physical state of which is changeable, wherein for each of the surge arresters, a blocking element (1; 2; 3) is provided, each of which is arranged so as to block the movement path (4; 5; 6) of a mechanically pretensioned wedge slider (7; 8; 9) having a wedge bevel, characterized in that a rocker lever arrangement includes first lever arms (13; 14; 15) corresponding to the number of wedge sliders (7; 8; 9) and at least one second lever arm for blocking or releasing the displacement element, wherein the ends of the first lever arms (13; 14; 15) remote from the axis of rotation of the rocker lever arrangement each have a surface for sensing the respective wedge bevel of the wedge sliders (7; 8; 9), such that when the respective movement path (4; 5; 6) is cleared, at least one of the wedge sliders (7; 8; 9) lifts the first lever arm (13; 14; 15) concerned by its wedge bevel, as a result of which the second lever arm releases the displacement element.
An aerosol generating device comprising: a heater configured to heat an aerosol generating substance; a battery configured to supply power to the heater; and a thermoelectric element arranged adjacent to the heater, and configured to absorb heat from the heater and convert the absorbed heat into electric power; characterized in that the aerosol generating device further comprises a controller configured to charge the battery by using the converted power based on a heating time of the heater. a heater configured to heat an aerosol generating substance; a battery configured to supply power to the heater; and a thermoelectric element arranged adjacent to the heater, and configured to absorb heat from the heater and convert the absorbed heat into electric power; characterized in that the aerosol generating device further comprises a controller configured to charge the battery by using the converted power based on a heating time of the heater.
Method (METH) for assisting with the detection of damage to a duct, said duct being designed such as to convey a pressurised air flow collected at the outlet of a high pressure compressor of a turbine engine to a first pressure sensor and a second pressure sensor of a computer, the method (METH) comprising the following steps: • Measure a first air pressure at the first pressure sensor • Measure a second air pressure at the second pressure sensor • Determine a theoretical air flow pressure (Pth) at the outlet of the high pressure compressor • Make a first difference test including the following sub-steps: ▪ (Da) Calculate a first value equal to the difference between the theoretical pressure (Pth) and the first pressure ▪ Compare the first value with a threshold, the first difference test being positive if the first value is higher than the threshold, otherwise negative • Make a second difference test including the following sub-steps: ▪ Calculate a second value equal to the difference between the theoretical pressure (Pth) and the second pressure ▪ Compare the second value with the threshold, the second difference test being positive if the second value is higher than the threshold, otherwise negative • Perform a final test (Tf), which is positive if the first difference test and the second difference test are positive, and negative otherwise. • Measure a first air pressure at the first pressure sensor • Measure a second air pressure at the second pressure sensor • Determine a theoretical air flow pressure (Pth) at the outlet of the high pressure compressor • Make a first difference test including the following sub-steps: ▪ (Da) Calculate a first value equal to the difference between the theoretical pressure (Pth) and the first pressure ▪ Compare the first value with a threshold, the first difference test being positive if the first value is higher than the threshold, otherwise negative ▪ (Da) Calculate a first value equal to the difference between the theoretical pressure (Pth) and the first pressure ▪ Compare the first value with a threshold, the first difference test being positive if the first value is higher than the threshold, otherwise negative • Make a second difference test including the following sub-steps: ▪ Calculate a second value equal to the difference between the theoretical pressure (Pth) and the second pressure ▪ Compare the second value with the threshold, the second difference test being positive if the second value is higher than the threshold, otherwise negative ▪ Calculate a second value equal to the difference between the theoretical pressure (Pth) and the second pressure ▪ Compare the second value with the threshold, the second difference test being positive if the second value is higher than the threshold, otherwise negative • Perform a final test (Tf), which is positive if the first difference test and the second difference test are positive, and negative otherwise.