mhurhangee/ep-ind-claims huggingface dataset:
A trim device for a gangway of a vehicle comprising: • a first car; • a second car connected to the first car by the gangway; the trim device comprising: • a movable screen provided with a front face visible from the outside of the vehicle and a rear face facing toward the gangway in the configuration of the trim device mounted on the vehicle; • means for mounting the screen on the first car and on the second car in the configuration of the trim device mounted on the vehicle; and • concealing means, characterized in that the screen is rigid, in that the concealing means comprise a first rail provided to be fastened to the first car in the configuration of the trim device mounted on the vehicle and a second rail provided to be fastened to the second car in the configuration of the trim device mounted on the vehicle, each rail extending along the rear face of the screen, and in that the mounting means comprise at least a first support member of the screen relative to the first car in the configuration of the trim device mounted on the vehicle and at least a second support member of the screen relative to the second car in the configuration of the trim device mounted on the vehicle. • a first car; • a second car connected to the first car by the gangway; • a movable screen provided with a front face visible from the outside of the vehicle and a rear face facing toward the gangway in the configuration of the trim device mounted on the vehicle; • means for mounting the screen on the first car and on the second car in the configuration of the trim device mounted on the vehicle; and • concealing means,
A random access problem detecting method performed by a mobile station apparatus using multiple component carriers that are frequency bands available to communicate with a base station apparatus, the random access problem detecting method comprising: setting one counter for counting the number of times a random access preamble has been transmitted using a master component carrier of the multiple component carriers which is specified by the base station apparatus; transmitting the random access preamble to the base station apparatus; counting, by the counter, the number of times the random access preamble has been transmitted using the master component carrier; and if the number of times reaches a predetermined maximum number, recognizing by a MAC layer, that a Radio Link Failure is detected, and releasing a radio resource used for transmitting the random access preamble. setting one counter for counting the number of times a random access preamble has been transmitted using a master component carrier of the multiple component carriers which is specified by the base station apparatus; transmitting the random access preamble to the base station apparatus; counting, by the counter, the number of times the random access preamble has been transmitted using the master component carrier; and if the number of times reaches a predetermined maximum number, recognizing by a MAC layer, that a Radio Link Failure is detected, and releasing a radio resource used for transmitting the random access preamble.
An aerosol provision system comprising a vaporiser for vaporising aerosolisable material, and an air inlet channel for delivering air to the vaporiser, wherein the air inlet channel comprises an opening which is configured to be covered when the aerosol provision system is in a first configuration, and which is configured to be uncovered when the aerosol provision system is in a second configuration, wherein the opening is configured to allow air to bypass the vaporiser when the opening is uncovered, by bypassing out from the air inlet channel through the opening, for inhibiting the delivery of vaporised aerosolisable material when the aerosol provision system is in the second configuration.
A system for depth referencing and installing casing strings in a wellbore, the system comprising: a depth reference coupling positioned in a first casing string (104, 106) installed in the wellbore, the first casing string having a predetermined length between the depth reference coupling and a predetermined reference point, the depth reference coupling having a profile; an indicator assembly positioned in a second casing string (120, 122), the indicator assembly having a mating profile operable to engage the profile of the depth reference coupling; characterised by a service string releasably engageable with the second casing string (120, 122) and operable to run the second casing string (120, 122) in the first casing string (104, 106) until the mating profile of the indicator assembly engages the profile of the depth reference coupling; and a suspension tool positioned in the second casing string (120, 122), the suspension tool selectively operable to support the second casing string (120, 122) within the first casing string (104, 106). a depth reference coupling positioned in a first casing string (104, 106) installed in the wellbore, the first casing string having a predetermined length between the depth reference coupling and a predetermined reference point, the depth reference coupling having a profile; an indicator assembly positioned in a second casing string (120, 122), the indicator assembly having a mating profile operable to engage the profile of the depth reference coupling; characterised by a service string releasably engageable with the second casing string (120, 122) and operable to run the second casing string (120, 122) in the first casing string (104, 106) until the mating profile of the indicator assembly engages the profile of the depth reference coupling; and a suspension tool positioned in the second casing string (120, 122), the suspension tool selectively operable to support the second casing string (120, 122) within the first casing string (104, 106).
Contact insert (2, 4) for a plug-in connector part (1, 3), having a frame part, a plug-in portion which is arranged on the frame part and which is intended for plug-in connection to a further plug-in connector part (3, 1), at least one electrical contact element (211, 411) which is arranged on the plug-in portion, and an earthing element which is arranged on the frame part and to which a protective line can be connected, characterized by a contact-connection device which is arranged on the earthing element and which has a spring element that can be pivoted about a pivot axis relative to the earthing element and that has a clamping limb for locking a protective line on the earthing element in a clamping position and a latching limb for latching the spring element to the earthing element, wherein the spring element can be moved out of the clamping position by the release of the latching action.
Device for producing products having individual geometries, comprising - a substrate plate, - a material application device which can be moved relative to the substrate plate, preferably above the substrate plate, in order to apply material to the substrate plate, - a control device which is connected to the material application device and/or to a conveyor device for conveying the substrate plate in a signal transmitting arrangement, characterised in that - the control device is configured to control the material application device in such a way that it applies the material selectively to predefined regions corresponding to the cross-section of a product in the respective layer, - the material application device is configured to apply the material in a plane that is oriented at an angle with respect to the surface of the substrate plate to which the material is applied, in particular at an angle that is smaller than or equal to the angle of repose of the material, and to apply the material in a layer thickness of between 5 μm and 200 μm in particular, and - the material is applied in layers but as opposed to applying a homogeneous cohesive layer, the layer is applied selectively already and the applied regions are cured. - a substrate plate, - a material application device which can be moved relative to the substrate plate, preferably above the substrate plate, in order to apply material to the substrate plate, - a control device which is connected to the material application device and/or to a conveyor device for conveying the substrate plate in a signal transmitting arrangement, - the control device is configured to control the material application device in such a way that it applies the material selectively to predefined regions corresponding to the cross-section of a product in the respective layer, - the material application device is configured to apply the material in a plane that is oriented at an angle with respect to the surface of the substrate plate to which the material is applied, in particular at an angle that is smaller than or equal to the angle of repose of the material, and to apply the material in a layer thickness of between 5 μm and 200 μm in particular, and - the material is applied in layers but as opposed to applying a homogeneous cohesive layer, the layer is applied selectively already and the applied regions are cured.
Method for grinding a roll, in particular a work roll, intermediate roll or back-up roll, by means of a roll grinding device, in particular a roll grinding device according to one of claims 12 to 15, - in which a roll is ground with a grinding tool of the roll grinding device, - in which at least one measured value of at least one measured quantity relating to the surface quality of the roll is measured during grinding, i.e. while the roll surface is being ground with the grinding tool, the at least one measured value being measured at at least one measuring area on the roll surface, - in which at least one operating parameter of the roll grinding device is automatically set during grinding as a function of the measured quantity, and - in which the roll surface area detected during the measurement is cleaned before the measurement. - in which a roll is ground with a grinding tool of the roll grinding device, - in which at least one measured value of at least one measured quantity relating to the surface quality of the roll is measured during grinding, i.e. while the roll surface is being ground with the grinding tool, the at least one measured value being measured at at least one measuring area on the roll surface, - in which at least one operating parameter of the roll grinding device is automatically set during grinding as a function of the measured quantity, and - in which the roll surface area detected during the measurement is cleaned before the measurement.
Computer-implemented method for determining a value quantifying the effect of an optical filter on a parameter linked to an eye, this optical filter blocking at least partially the transmission of light over a predetermined wavelength range, comprising the following steps: a) at least one spectral feature of the optical filter related to the transmittance of this optical filter at at least one wavelength in said predetermined wavelength range is provided, b) the value quantifying the effect of the optical filter on said parameter is calculated as a function of said at least one spectral feature of the optical filter provided in step a) characterized in that the determination of this function comprises determining a mathematical function whose curve fits experimental data comprising a set of measured values quantifying the effect of reference filters of a set of reference filters associated to the corresponding spectral feature of the reference optical filter considered. a) at least one spectral feature of the optical filter related to the transmittance of this optical filter at at least one wavelength in said predetermined wavelength range is provided, b) the value quantifying the effect of the optical filter on said parameter is calculated as a function of said at least one spectral feature of the optical filter provided in step a)
An expansion system for a working medium that is used in particular in a circulating process of a system that utilises waste heat, in particular in a system operating in a Rankine cycle, including an expansion device coupled to an electricity generator, for the working medium, an inlet for supplying the pressurised working medium, and an outlet for the working medium that has been expanded by the expansion device, wherein an aerosol generator unit that generates a lubricant aerosol is associated with the inlet, wherein the working medium guided to the expansion device flows through this aerosol generator unit, which has a flow guide for the working medium having a concentration section that concentrates lubricant entrained in the total mass flow of working medium supplied to the expansion device to give aerosol particles, wherein these aerosol particles leave the concentration section together with a partial mass flow of the working medium, branching off from the total mass flow of working medium, as a lubricant aerosol mass flow (SAe), and wherein there is provided a line system that guides the lubricant aerosol mass flow (SAe) to lubrication points (72, 74, 76) of an expansion arrangement of the expansion device, for the purpose of aerosol lubrication.
A work vehicle, comprising: - a cab; - at least one fuel tank (36, 38 40, 42) coupled to the cab; wherein the at least one fuel tank (36, 38, 40) comprises a first fuel tank, a second fuel tank and a third fuel tank, the first, second and third fuel tanks being coupled to the cab - a cab housing including a first housing portion extending between a top of the cab and a left tire well of the work vehicle, a second housing portion extending between the top of the cab and a right tire well of the work vehicle and a third housing portion extending between the first and second housing portions (72, 74) and configured to cover the at least one fuel tank (36, 38, 40), the cab housing defining at least one access port (92, 94, 96) configured to provide access to the at least one fuel tank (36, 38, 40); and - at least one cover panel (98, 100, 102) configured to be coupled to the cab housing so as to cover the at least one access port (92, 94, 96). - a cab; - at least one fuel tank (36, 38 40, 42) coupled to the cab; wherein the at least one fuel tank (36, 38, 40) comprises a first fuel tank, a second fuel tank and a third fuel tank, the first, second and third fuel tanks being coupled to the cab - a cab housing including a first housing portion extending between a top of the cab and a left tire well of the work vehicle, a second housing portion extending between the top of the cab and a right tire well of the work vehicle and a third housing portion extending between the first and second housing portions (72, 74) and configured to cover the at least one fuel tank (36, 38, 40), the cab housing defining at least one access port (92, 94, 96) configured to provide access to the at least one fuel tank (36, 38, 40); and - at least one cover panel (98, 100, 102) configured to be coupled to the cab housing so as to cover the at least one access port (92, 94, 96).
Computer implemented method for determining a level of a medium in a container, the method comprising the following steps carried out by computer hardware components: sending a plurality of pulses through a probe in the container; sensing responses caused by reflections of the pulses; determining a statistical model related to the medium in the container based on the responses; and determining the level of the medium in the container based on the statistical model; characterised in that the statistical model represents an echo curve. sending a plurality of pulses through a probe in the container; sensing responses caused by reflections of the pulses; determining a statistical model related to the medium in the container based on the responses; and determining the level of the medium in the container based on the statistical model; characterised in that the statistical model represents an echo curve.
A drill bit, comprising: a surface that includes a pad (240a, 240b) configured to extend and retract from the surface; a motor; and a hydraulic unit configured to apply force on the pad (240a, 240b); characterised by comprising: a linearly movable member coupled to the motor, wherein rotation of the motor in a first rotational direction causes the linearly movable member to move in a first direction; and a piston coupled to the linearly movable member, wherein the movement of the linearly movable member moves the piston in the first direction; wherein the hydraulic unit includes a fluid chamber, a moveable chamber and a fluid cavity, the moveable chamber being coupled to the pad; wherein the movement of the piston in the first direction causes a fluid in the fluid chamber to move in the first direction and into the fluid cavity; wherein movement of fluid into the fluid cavity exerts pressure that causes the fluid cavity to expand by causing the moveable chamber to move in the first direction; wherein movement of the moveable chamber in the first direction exerts a force on the pad to extend the pad (240a, 240b). a motor; and a hydraulic unit configured to apply force on the pad (240a, 240b); a linearly movable member coupled to the motor, wherein rotation of the motor in a first rotational direction causes the linearly movable member to move in a first direction; and a piston coupled to the linearly movable member, wherein the movement of the linearly movable member moves the piston in the first direction; wherein the hydraulic unit includes a fluid chamber, a moveable chamber and a fluid cavity, the moveable chamber being coupled to the pad; wherein the movement of the piston in the first direction causes a fluid in the fluid chamber to move in the first direction and into the fluid cavity; wherein movement of fluid into the fluid cavity exerts pressure that causes the fluid cavity to expand by causing the moveable chamber to move in the first direction; wherein movement of the moveable chamber in the first direction exerts a force on the pad to extend the pad (240a, 240b).
A ground terminal for discharging electric currents from a rotor part of a vehicle, in particular a rail vehicle or the like, having an axle to a stationary stator part of the vehicle, the ground terminal comprising a retaining device and a terminal element, the retaining device being connected to the stationary stator part of the vehicle in an electrically conductive manner, the terminal element being disposed on the retaining device and being connected thereto in an electrically conductive manner, the terminal element being made mostly of graphite, the terminal element being subjected to a contact force by means of a spring device of the retaining device in order to realize an electrically conductive sliding contact between a sliding contact surface of the terminal element provided for realizing the sliding contact and a terminal surface of the rotor part, characterized in that the terminal element has an arc-shaped cross section at least in sections, a radial outer surface of the cross section forming the sliding contact surface at least in sections, the sliding contact surface being realized to abut radially against the terminal surface of the rotor part.
A method for laser-processing a surface, wherein a laser beam is guided over the surface by means of a laser scanner and the surface is displaced and/or rotated with respect to the laser scanner in a plurality of successive repositioning processes, wherein, during each repositioning process, the laser beam is deflected over the surface by the laser scanner along a direction progression between a starting direction and an end direction, characterised in that during each repositioning process, the surface is moved at least in a positive acceleration phase, in which a speed of the surface relative to the laser scanner is increased, and a negative acceleration phase, which is implemented after the positive acceleration phase and in which the speed of the surface relative to the laser scanner is reduced to zero, and wherein, if, in the negative acceleration phase, the zero speed is reached before the laser beam has reached the end direction, the increase in speed in the positive acceleration phase of the subsequent repositioning process commences at a point in time at which the laser beam reaches the end direction and if, in the negative acceleration phase, the zero speed is reached after the laser beam has reached the end position, the increase in speed in the positive acceleration phase of the subsequent repositioning process commences immediately after the reaching of the zero speed.
A hybrid inflator comprising: a pressurized gas and a solid gas generating agent that generates a combustion gas as a gas source, wherein the solid gas generating agent comprises at least a fuel in an amount of 60 mass% or less, an oxidizing agent in an amount of 5 to 60 mass%, and a binder in an amount of 20 to 90 mass%, wherein the solid gas generating agent comprises a perchlorate as an oxidizing agent, wherein the solid gas generating agent comprises a guanidine derivative as a fuel, wherein the solid gas generating agent comprises methyl cellulose, ethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, carboxymethyl cellulose sodium salt, cellulose acetate butyrate, nitrocellulose, microcrystalline cellulose, α-cellulose; dextrin, gum arabic, gum tragacanth, carrageenan, sodium alginate, gelatin, starch, guar gum, gluten; poly-N-vinyl pyrrolidone, polyvinyl alcohol, polyvinyl acetate; polypropylene carbonate, polyethylene glycol, polyamides, poly-acrylic polymers, polyacetals, urea resins, melamine resins, polyurethanes, thermoplastic rubbers; sugars; magnesium borate, magnesium silicate; lactose, mannitol, amylose;calcium phosphate, calcium lactate, and magnesium alminate metasilicate, or mixtures thereof as a binder, wherein a mass ratio (fuel/oxidizing agent) of the fuel to the oxidizing agent is within a range of from more than 0.35 to less than 0.95, and wherein the pressurized gas comprises 15 mol% or more of oxygen. a pressurized gas and a solid gas generating agent that generates a combustion gas as a gas source, wherein the solid gas generating agent comprises at least a fuel in an amount of 60 mass% or less, an oxidizing agent in an amount of 5 to 60 mass%, and a binder in an amount of 20 to 90 mass%, wherein the solid gas generating agent comprises a perchlorate as an oxidizing agent, wherein the solid gas generating agent comprises a guanidine derivative as a fuel, wherein the solid gas generating agent comprises methyl cellulose, ethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, carboxymethyl cellulose sodium salt, cellulose acetate butyrate, nitrocellulose, microcrystalline cellulose, α-cellulose; dextrin, gum arabic, gum tragacanth, carrageenan, sodium alginate, gelatin, starch, guar gum, gluten; poly-N-vinyl pyrrolidone, polyvinyl alcohol, polyvinyl acetate; polypropylene carbonate, polyethylene glycol, polyamides, poly-acrylic polymers, polyacetals, urea resins, melamine resins, polyurethanes, thermoplastic rubbers; sugars; magnesium borate, magnesium silicate; lactose, mannitol, amylose;calcium phosphate, calcium lactate, and magnesium alminate metasilicate, or mixtures thereof as a binder, wherein a mass ratio (fuel/oxidizing agent) of the fuel to the oxidizing agent is within a range of from more than 0.35 to less than 0.95, and wherein the pressurized gas comprises 15 mol% or more of oxygen.