mhurhangee/ep-ind-claims huggingface dataset:
A robotic work tool configured to operate in an area in an autonomous manner, wherein the robotic work tool comprises: - one or more rechargeable batteries, and - a contact plate configured to transfer electricity from a contact of a docking station to the one or more rechargeable batteries, wherein the contact plate comprises an edge surface extending along an abutment plane (Pa), the edge surface being configured to abut against the contact of the docking station upon movement of the robotic work tool relative to the docking station along a docking direction, characterized in that the contact plate comprises a number of sections (s1-s5, b1-b4) each being angled relative to the docking direction with an angle (a1-a5) measured in a plane parallel to the abutment plane (Pa) such that a contact area (A, A') between the contact plate and the contact of the docking station moves in a direction perpendicular to the docking direction upon the movement of the robotic work tool in the docking direction relative to the docking station. - one or more rechargeable batteries, and - a contact plate configured to transfer electricity from a contact of a docking station to the one or more rechargeable batteries, wherein the contact plate comprises an edge surface extending along an abutment plane (Pa), the edge surface being configured to abut against the contact of the docking station upon movement of the robotic work tool relative to the docking station along a docking direction, characterized in that the contact plate comprises a number of sections (s1-s5, b1-b4) each being angled relative to the docking direction with an angle (a1-a5) measured in a plane parallel to the abutment plane (Pa) such that a contact area (A, A') between the contact plate and the contact of the docking station moves in a direction perpendicular to the docking direction upon the movement of the robotic work tool in the docking direction relative to the docking station. wherein the contact plate comprises an edge surface extending along an abutment plane (Pa), the edge surface being configured to abut against the contact of the docking station upon movement of the robotic work tool relative to the docking station along a docking direction, characterized in that the contact plate comprises a number of sections (s1-s5, b1-b4) each being angled relative to the docking direction with an angle (a1-a5) measured in a plane parallel to the abutment plane (Pa) such that a contact area (A, A') between the contact plate and the contact of the docking station moves in a direction perpendicular to the docking direction upon the movement of the robotic work tool in the docking direction relative to the docking station.
A surgical device (100, 200, 300, 500) comprising: an optical fiber (110, 210, 310, 510), wherein the optical fiber (110, 210, 310, 510) comprises a loop (110a, 210a, 310a, 510a) and a proximal end, a stem (130, 230, 330, 530) including a lumen, an adjuster (120, 220, 320, 520), wherein at least a portion of the optical fiber (110, 210, 310, 510) which includes the proximal end is housed within the lumen, characterised in that the adjuster (120, 220, 320, 520) is operably coupled to the proximal end so that the adjuster (120, 220, 320, 520) is configured to adjust a size associated with the loop (110a, 210a, 310a, 510a) when the adjuster (120, 220, 320, 520) is moved relative to the stem (130, 230, 330, 530). an optical fiber (110, 210, 310, 510), wherein the optical fiber (110, 210, 310, 510) comprises a loop (110a, 210a, 310a, 510a) and a proximal end, a stem (130, 230, 330, 530) including a lumen, an adjuster (120, 220, 320, 520), wherein at least a portion of the optical fiber (110, 210, 310, 510) which includes the proximal end is housed within the lumen, characterised in that the adjuster (120, 220, 320, 520) is operably coupled to the proximal end so that the adjuster (120, 220, 320, 520) is configured to adjust a size associated with the loop (110a, 210a, 310a, 510a) when the adjuster (120, 220, 320, 520) is moved relative to the stem (130, 230, 330, 530).
An electrical switch (100; 200) comprising: • a base (110; 210); • a driver (126; 226) that is mounted in the base (110; 210) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element; • a compressible element (150; 250) that is adapted both to be inactive relative to the driver (126; 226) so as to leave the driver free to take up one or the other of the two stable positions, and to be received between a bearing surface of the base (110; 210) and the driver (126; 226) and be stressed against the driver (126; 226) so as to force the driver (126; 226) to take up only one of the two stable positions; and • a retaining element (117, 119; 217, 219) that is made integrally with the base (110; 210) and that is adapted to hold the compressible element (150; 250) in its inactive state relative to the driver (126; 226); the electrical switch being characterized in that the retaining element (117, 119; 217, 219) is movable in reversible manner between a retaining position in which it holds the compressible element (150; 250) in its inactive state relative to the driver (126; 226), and a spaced-apart position in which it leaves the compressible element (150; 250) free to extend up to the driver (126; 226). • a base (110; 210); • a driver (126; 226) that is mounted in the base (110; 210) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element; • a compressible element (150; 250) that is adapted both to be inactive relative to the driver (126; 226) so as to leave the driver free to take up one or the other of the two stable positions, and to be received between a bearing surface of the base (110; 210) and the driver (126; 226) and be stressed against the driver (126; 226) so as to force the driver (126; 226) to take up only one of the two stable positions; and • a retaining element (117, 119; 217, 219) that is made integrally with the base (110; 210) and that is adapted to hold the compressible element (150; 250) in its inactive state relative to the driver (126; 226);
A method for determining a numerical degree of risk associated with an electronic transaction, the method comprising acts of: - Recording one or more past transactions; - Taking a plurality of measurements from each recorded transaction; - Determining degree of risk associated with the electronic transactions wherein the degree of risk is a numeric degree of risk, and the method further comprises analyzing one or more patterns of activities observed during an electronic transaction by analyzing one or more aspects of how certain steps are performed during the electronic transaction, the one or more aspects including - ordering of steps, - presence of any unexpected step, - absence of any expected step, - time between steps, - completeness of a step and coherence of measured data between steps, wherein statistical models are used to analyze the one or more patterns to identify suspicious patterns and provide a level of risk and/or a confidence score indicative of likelihoods of attack, respectively, wherein the method further comprises analyzing one or more aspects of how certain elements within a step are performed during the electronic transaction, wherein the step includes one or more web site input controls, and the analyzing takes into account how the website input controls are accessed and how the corresponding input is applied, wherein the method is characterized in that the analyzing comprises determining whether input elements of a web page are entered in an order that corresponds to the web page's visual layout or a defined HTML tabindex. - Recording one or more past transactions; - Taking a plurality of measurements from each recorded transaction; - Determining degree of risk associated with the electronic transactions - ordering of steps, - presence of any unexpected step, - absence of any expected step, - time between steps, - completeness of a step and coherence of measured data between steps,
Process to convert cyclic alkylene ureas into their corresponding alkylene amines by reaction with an amine compound chosen from the group of primary amines or secondary amines that have a higher boiling point than the alkylene amines formed during the process, wherein the process is a reactive separation process and the reaction mixture contains less than 10 wt% of water on the basis of total weight of the reaction mixture.
A high-voltage switch comprising a switching assembly (1a, 1b), wherein the switching assembly (1a, 1b) is arranged in a metal enclosure (2a, 2b), characterized in that the switch comprises at least two metal enclosures (2a, 2b), with a switching assembly (1a, 1b) arranged in each metal enclosure (2a, 2b), wherein said switching assemblies (1a, 1b) are arranged in series and wherein said at least two metal enclosures (2a, 2b) are electrically insulated from each other, and wherein each switching assembly (1a, 1b) comprises an actuator (15a, 15b) for actuating the switching assembly (1a, 1b), wherein the actuators (15a, 15b) of the switching assemblies (1a, 1b) are electrically insulated from each other.
An extrusion system, comprising: an extruder, comprising: an input port configured to feed ceramic pre-cursor batch into a first section of an extruder barrel, and a discharge port configured to extrude a ceramic pre-cursor extrudate out of the extruder barrel downstream of the input port; a liquid injector configured to inject liquid into the ceramic pre-cursor batch; a sensor (106(a), 106(b)) configured to detect a rheology characteristic of the ceramic pre-cursor batch; a controller configured (i) to receive the rheology characteristic from the sensor (106(a), 106(b)), (ii) compare the rheology characteristic to a predetermined rheology value of the ceramic pre-cursor batch, and (iii) generate a command based on the comparison; and a liquid regulator configured to receive the command and adjust liquid flow to the liquid injector based on the command, characterized in that the predetermined rheology value comprises (i) a first liquid value for extruder die start-up conditions and (ii) a second liquid value less than the first value for steady-state extruder conditions. an extruder, comprising: an input port configured to feed ceramic pre-cursor batch into a first section of an extruder barrel, and a discharge port configured to extrude a ceramic pre-cursor extrudate out of the extruder barrel downstream of the input port; an input port configured to feed ceramic pre-cursor batch into a first section of an extruder barrel, and a discharge port configured to extrude a ceramic pre-cursor extrudate out of the extruder barrel downstream of the input port; a liquid injector configured to inject liquid into the ceramic pre-cursor batch; a sensor (106(a), 106(b)) configured to detect a rheology characteristic of the ceramic pre-cursor batch; a controller configured (i) to receive the rheology characteristic from the sensor (106(a), 106(b)), (ii) compare the rheology characteristic to a predetermined rheology value of the ceramic pre-cursor batch, and (iii) generate a command based on the comparison; and a liquid regulator configured to receive the command and adjust liquid flow to the liquid injector based on the command, characterized in that the predetermined rheology value comprises (i) a first liquid value for extruder die start-up conditions and (ii) a second liquid value less than the first value for steady-state extruder conditions.
A method for calibrating a tunable laser for optical communications, the tunable laser being configured to include multiple facets of a plurality of mirrors at an optical output, each mirror having a different sampled grating period, the method comprising: determining mirror currents that are needed to tune the plurality of mirrors to a desired wavelength for the tunable laser, via electronic circuit, based on at least one of: a gain-voltage map of a gain section of the tunable laser, a semiconductor optical amplifier photocurrent map, mirror reflection spectra of the plurality of mirrors, and mode-hopping of the tunable laser; and monitoring, via the electronic circuit, output power from each facet of the plurality of mirrors, via a plurality of SOAs configured to operate as photodetectors. determining mirror currents that are needed to tune the plurality of mirrors to a desired wavelength for the tunable laser, via electronic circuit, based on at least one of: a gain-voltage map of a gain section of the tunable laser, a semiconductor optical amplifier photocurrent map, mirror reflection spectra of the plurality of mirrors, and mode-hopping of the tunable laser; and monitoring, via the electronic circuit, output power from each facet of the plurality of mirrors, via a plurality of SOAs configured to operate as photodetectors.
Drive device for an automotive work machine, including: - a first hydraulic motor coupled to a driven shaft; - a second hydraulic motor; and - a coupling device, by means of which the second hydraulic motor can be coupled to the driven shaft for torque addition in a first shift state and can be decoupled from the driven shaft in a second shift state, wherein the coupling device includes: - at least one synchronizing body with a conical friction surface coupled to the second hydraulic motor; and - a gear wheel with a corresponding friction surface movable relatively to the synchronizing body and coupled to the driven shaft, wherein - upon coupling the second hydraulic motor to the driven shaft, a possible rotation speed difference between the synchronizing body and the gear wheel can be at least reduced and a frictional fit between the friction surface of the synchronizing body and the friction surface of the gear wheel can be established by relatively moving the synchronizing body and the gear wheel to each other; and - upon decoupling the second hydraulic motor from the driven shaft, the frictional fit between the friction surface of the synchronizing body and the friction surface of the gear wheel can be cancelled by relatively moving the synchronizing body and the gear wheel away from each other characterized in that the coupling device is configured to accelerate the second hydraulic motor at least to a preset minimum rotation speed upon shifting from the second shift state into the first shift state, before establishing the frictional fit between the synchronizing body and the gear wheel. - a first hydraulic motor coupled to a driven shaft; - a second hydraulic motor; and - a coupling device, by means of which the second hydraulic motor can be coupled to the driven shaft for torque addition in a first shift state and can be decoupled from the driven shaft in a second shift state, - at least one synchronizing body with a conical friction surface coupled to the second hydraulic motor; and - a gear wheel with a corresponding friction surface movable relatively to the synchronizing body and coupled to the driven shaft, wherein - upon coupling the second hydraulic motor to the driven shaft, a possible rotation speed difference between the synchronizing body and the gear wheel can be at least reduced and a frictional fit between the friction surface of the synchronizing body and the friction surface of the gear wheel can be established by relatively moving the synchronizing body and the gear wheel to each other; and - upon decoupling the second hydraulic motor from the driven shaft, the frictional fit between the friction surface of the synchronizing body and the friction surface of the gear wheel can be cancelled by relatively moving the synchronizing body and the gear wheel away from each other
A wall mounting device for mounting a unit on a wall, the device comprising a bracket assembly for attachment to the unit, and a support for anchoring to the wall, the bracket assembly comprising hooking means for engaging the bracket assembly on the support, in use, for suspending said unit therefrom, wherein said hooking means comprise a releasable locking mechanism movable into a locking position for blocking disengagement of the bracket assembly from the support, with said locking mechanism incorporating an upwardly facing latching surface and the support incorporating a downwardly facing ledge that is engagable therewith to prevent the bracket assembly from being lifted off the support after engagement therewith, with the locking mechanism being arranged to move into its locking position automatically upon engagement of the bracket assembly with the support, wherein said latching surface is provided on a separate member that is mounted on the bracket assembly for movement relative thereto, wherein the member is in the form of a lever that is pivotally mounted on the bracket assembly, wherein the lever is pivotable between a locking position in which it prevents disengagement of the bracket assembly from the support and an unlocked position in which it allows disengagement of the bracket assembly from the support, and characterised in further comprising releasable retainer means (30, 31) for holding the lever in its unlocked position.
A backboard for an automated cardio pulmonary resuscitation system, said backboard comprising: - a board element, the board element defining a plane and having a top edge, a bottom edge a first side edge and a second side edge, and providing a rest for the back of a patient; - a set of connectors (50,51) adapted for connection of the backboard to an automated cardio pulmonary resuscitation unit, said connectors (50, 51) being provided at said side edges; - characterised in that said backboard further comprises: - at least one set of stabilizing elements (20, 21) wherein said at least one set of stabilizing elements (20, 21) comprises a set of shoulder stops formed as rigid arms, a section of which extends away from the top edge in the plane of the board element and a section of that extends transversely to said plane. - a board element, the board element defining a plane and having a top edge, a bottom edge a first side edge and a second side edge, and providing a rest for the back of a patient; - a set of connectors (50,51) adapted for connection of the backboard to an automated cardio pulmonary resuscitation unit, said connectors (50, 51) being provided at said side edges; - characterised in that said backboard further comprises: - at least one set of stabilizing elements (20, 21) wherein said at least one set of stabilizing elements (20, 21) comprises a set of shoulder stops formed as rigid arms, a section of which extends away from the top edge in the plane of the board element and a section of that extends transversely to said plane.
A pneumatic tire having a radially outer tread, the tread having one or more circumferential grooves, characterised by the bottom, or one or both sides, or the bottom and one or both sides of at least one circumferential groove being at least partially textured with flat-topped pyramids, wherein said flat-topped pyramids are preferably defined by four concave edges.
A preparation method of a super absorbent polymer non-woven fabric comprising superabsorbent polymer fibers having a diameter of more than 10 μm and a length of 0.1 m or more, wherein a critical curvature is 0.5 mm -1 or more, wherein the critical curvature means a reciprocal 1/r of the minimum radius of curvature R in mm that does not break when the fiber is bent, and the critical curvature is measured as disclosed in the specification, wherein the super absorbent polymer fibers have saline flow conductivity of 30*10 -7 to 100*10 -7 cm 3 ·sec/g, as measured as disclosed in the specification, comprising the steps of: preparing a first aqueous polymer solution containing a hydrogel polymer by polymerizing an aqueous monomer solution containing an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer having a glass transition temperature (Tg) of room temperature (25 °C) or lower, and a polymerization initiator, mixing the first aqueous polymer solution with a cross-linking agent having a glass transition temperature (Tg) of room temperature (25 °C) or lower to prepare a second aqueous polymer solution; spinning the second aqueous polymer solution by a solution blown process; and drying the spun second aqueous polymer solution to prepare a super absorbent polymer non-woven fabric comprising super absorbent polymer fibers. preparing a first aqueous polymer solution containing a hydrogel polymer by polymerizing an aqueous monomer solution containing an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer having a glass transition temperature (Tg) of room temperature (25 °C) or lower, and a polymerization initiator, mixing the first aqueous polymer solution with a cross-linking agent having a glass transition temperature (Tg) of room temperature (25 °C) or lower to prepare a second aqueous polymer solution; spinning the second aqueous polymer solution by a solution blown process; and drying the spun second aqueous polymer solution to prepare a super absorbent polymer non-woven fabric comprising super absorbent polymer fibers.
An electronic apparatus comprising: a display; a memory configured to store instructions; and a processor configured to execute the instructions to: control the display to display an image captured via a camera, control the display to display a first guideline, recognize an object in the image based on the first guideline, render a virtual object to replace the object, generate an augmented reality image including the virtual object that is located in an area where the object is located in the image, and control the display to display the augmented reality image; characterized in that the processor is further configured to display the first guideline as a straight line, and recognizing the object in the image based on the first guideline comprises to align the object in the image with the first guideline, so that one surface of the object is coincident or parallel with the straight line of the first guideline. a display; a memory configured to store instructions; and a processor configured to execute the instructions to: control the display to display an image captured via a camera, control the display to display a first guideline, recognize an object in the image based on the first guideline, render a virtual object to replace the object, generate an augmented reality image including the virtual object that is located in an area where the object is located in the image, and control the display to display the augmented reality image; characterized in that the processor is further configured to display the first guideline as a straight line, and recognizing the object in the image based on the first guideline comprises to align the object in the image with the first guideline, so that one surface of the object is coincident or parallel with the straight line of the first guideline. control the display to display an image captured via a camera, control the display to display a first guideline, recognize an object in the image based on the first guideline, render a virtual object to replace the object, generate an augmented reality image including the virtual object that is located in an area where the object is located in the image, and control the display to display the augmented reality image; characterized in that the processor is further configured to display the first guideline as a straight line, and recognizing the object in the image based on the first guideline comprises to align the object in the image with the first guideline, so that one surface of the object is coincident or parallel with the straight line of the first guideline.