mhurhangee/ep-ind-claims huggingface dataset:
A ticket dispenser comprising a housing body, a lockable housing door configured to close an opening in the housing body, a ticket dispensing aperture, a lockable security cover configured to prevent the removal of tickets through the dispensing aperture, and characterised by a lock assembly having a multi-way locking arm, wherein the locking arm is configured to lock the housing door and the security cover when the locking arm is in a first orientation, in which the locking arm engages with the security cover, wherein the locking arm is configured to lock the housing door and not to lock the security cover when the locking arm is in a second orientation, and wherein the locking arm is configured not to lock the housing door and not to lock the security cover when the locking arm is in a third orientation.
A vehicle engine having an axis of symmetry about which components that comprise the vehicle engine rotate, comprising: an inlet particle separator system, the inlet particle separator system comprising: a hub section having a hub outer surface that diverges, relative to the axis of symmetry, to a hub apex, the hub apex being located at a point at which the hub section is at a maximum diameter relative to the axis of symmetry; a shroud section having a shroud inner surface that surrounds, and is spaced apart from, at least a portion of the hub section to define a main flow passageway between the hub outer surface and the shroud inner surface, the main flow passageway having an air inlet and a cross sectional flow area; and a splitter disposed downstream of the air inlet and extending into the main flow passageway to divide the main flow passageway into a scavenge flow path and an engine flow path, wherein: the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section, and the throat section is disposed upstream of the hub apex. a hub section having a hub outer surface that diverges, relative to the axis of symmetry, to a hub apex, the hub apex being located at a point at which the hub section is at a maximum diameter relative to the axis of symmetry; a shroud section having a shroud inner surface that surrounds, and is spaced apart from, at least a portion of the hub section to define a main flow passageway between the hub outer surface and the shroud inner surface, the main flow passageway having an air inlet and a cross sectional flow area; and a splitter disposed downstream of the air inlet and extending into the main flow passageway to divide the main flow passageway into a scavenge flow path and an engine flow path, wherein: the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section, and the throat section is disposed upstream of the hub apex. the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section, and the throat section is disposed upstream of the hub apex.
A method comprising: exposing a security article to a first magnetic field to magnetically orient a first set of particles of a first ink layer; curing the first ink layer to fix an orientation of the first set of particles; and exposing, after curing the first ink layer to fix an orientation of the first set of particles, the security article to a second magnetic field to magnetically orient a second set of particles of a second ink layer, wherein a color-shifting property of one of the first ink layer and the second ink layer has a threshold level of similarity to create a color matching effect. exposing a security article to a first magnetic field to magnetically orient a first set of particles of a first ink layer; curing the first ink layer to fix an orientation of the first set of particles; and exposing, after curing the first ink layer to fix an orientation of the first set of particles, the security article to a second magnetic field to magnetically orient a second set of particles of a second ink layer, wherein a color-shifting property of one of the first ink layer and the second ink layer has a threshold level of similarity to create a color matching effect.
A method for training a model for predicting a temperature rise of a heating element in a switchgear, comprising: obtaining a model for predicting the temperature rise, the model comprising a plurality of inputs, an output, and several parameters to be determined; obtaining n+1 sets of physical quantities in relation to the heating element, each set of physical quantities being collected at a corresponding one of n+1 time points spaced apart from each other by a time step in a normal operation state of the heating element, each set of physical quantities comprising a current and an actual temperature of the heating element and an ambient temperature; converting the actual temperature in each set of physical quantities into an actual temperature rise based on the corresponding ambient temperature; and training the model with the current, the actual temperature rise and the ambient temperature to determine the several parameters. obtaining a model for predicting the temperature rise, the model comprising a plurality of inputs, an output, and several parameters to be determined; obtaining n+1 sets of physical quantities in relation to the heating element, each set of physical quantities being collected at a corresponding one of n+1 time points spaced apart from each other by a time step in a normal operation state of the heating element, each set of physical quantities comprising a current and an actual temperature of the heating element and an ambient temperature; converting the actual temperature in each set of physical quantities into an actual temperature rise based on the corresponding ambient temperature; and training the model with the current, the actual temperature rise and the ambient temperature to determine the several parameters.
A unilateral orthotic for the treatment of club foot and other foot deformities, comprising a first holding apparatus for detachable connection to a leg of a wearer, a second holding apparatus for detachable connection to a foot on the same leg of the wearer, and a connecting apparatus between the first holding apparatus and the second holding apparatus, wherein the connecting apparatus comprises a first rotational joint having a first axis of rotation and the connecting apparatus comprises a second rotational joint having a vertically aligned second axis of rotation, as a result of which the first rotational joint guides the foot of a wearer during a dorsal extension and the second rotational joint guides the foot of the wearer during an external rotation, characterized in that the first axis of rotation corresponds to the axis of rotation of the upper ankle joint.
A method for cross-device login, the method comprising: receiving, by a server, a login request sent by a device to be authorized, wherein the login request comprises login information used for application login on the device to be authorized; sending, by the server, an instruction message to the device to be authorized, wherein the instruction message is used to instruct the device to be authorized to start, by the device to be authorized, a sensing apparatus of the device to be authorized, and perform, by the device to be authorized, audio sensing by using the sensing apparatus; sending, by the server, to an authorized device, a verification code used to verify, by the server, the device to be authorized, so that the authorized device encodes the verification code into an audio signal for broadcasting, by the authorized device, the audio signal to the device to be authorized, wherein the audio signal further comprises a request number corresponding to the login request; receiving, by the server, from the device to be authorized, the verification code and a request number extracted by the device to be authorized from the audio signal; verifying, by the server, the verification code and the request number extracted from the audio signal; and sending, by the server, a verification result to the device to be authorized and the authorized device. receiving, by a server, a login request sent by a device to be authorized, wherein the login request comprises login information used for application login on the device to be authorized; sending, by the server, an instruction message to the device to be authorized, wherein the instruction message is used to instruct the device to be authorized to start, by the device to be authorized, a sensing apparatus of the device to be authorized, and perform, by the device to be authorized, audio sensing by using the sensing apparatus; start, by the device to be authorized, a sensing apparatus of the device to be authorized, and perform, by the device to be authorized, audio sensing by using the sensing apparatus; sending, by the server, to an authorized device, a verification code used to verify, by the server, the device to be authorized, so that the authorized device encodes the verification code into an audio signal for broadcasting, by the authorized device, the audio signal to the device to be authorized, wherein the audio signal further comprises a request number corresponding to the login request; receiving, by the server, from the device to be authorized, the verification code and a request number extracted by the device to be authorized from the audio signal; verifying, by the server, the verification code and the request number extracted from the audio signal; and sending, by the server, a verification result to the device to be authorized and the authorized device.
A fuel piping element for liquid lines for connecting a fuel accumulator to a supply unit that supplies the combustion chambers of a motor vehicle engine with fuel, comprising an external pipe and an internal body (3a, 3b) arranged in a connection portion inside the external pipe, characterized in that - a buffer portion is provided, which adjoins the connection portion and is designed as a storage space for holding a quantity of fuel required when needed, - the buffer portion comprises a buffer chamber, which is circumferentially delimited by the inner diameter of the external pipe, - the internal body (3a, 3b) abuts the inner surface of the external pipe, and - the fuel piping element (1a, 1b) comprises a bend and the internal body (3a, 3b) ends in the region of the bend such that the buffer chamber is wedge-shaped. - a buffer portion is provided, which adjoins the connection portion and is designed as a storage space for holding a quantity of fuel required when needed, - the buffer portion comprises a buffer chamber, which is circumferentially delimited by the inner diameter of the external pipe, - the internal body (3a, 3b) abuts the inner surface of the external pipe, and - the fuel piping element (1a, 1b) comprises a bend and the internal body (3a, 3b) ends in the region of the bend such that the buffer chamber is wedge-shaped.
A biomaterial comprising: a bioactive polymer comprised of at least one peptide and/or protein subunit and at least one polysaccharide and/or proteoglycan subunit; and a biostable synthetic polymer as a biocompatible polymer; wherein the at least one peptide and/or protein subunit of the bioactive polymers is covalently bonded to the at least one polysaccharide and/or proteoglycan subunit, and Wherein the biocompatible polymer and the bioactive polymer are combined non-covalently to form a miscible polymer blend. a bioactive polymer comprised of at least one peptide and/or protein subunit and at least one polysaccharide and/or proteoglycan subunit; and a biostable synthetic polymer as a biocompatible polymer; wherein the at least one peptide and/or protein subunit of the bioactive polymers is covalently bonded to the at least one polysaccharide and/or proteoglycan subunit, and Wherein the biocompatible polymer and the bioactive polymer are combined non-covalently to form a miscible polymer blend.
A magnetic sealing closure, comprising: two flexible strips (10, 20); each strip (10,20) having a main axis and comprising a plurality of magnetic elements (18, 28) of the closure; said strips (10, 20) each carrying a membrane (19, 29) of the closure connected to a side of the respective strip and facing each other with the membranes when brought into contact therebetween by means of an attracting force generated by said magnetic elements (18, 28), such that a sealing is provided; wherein said strips (10, 20) each have a thickness thereof; characterised in that said strips (10, 20) each have a plurality of cavities (16, 26) therewithin within said thickness; and for each of said strips said cavities (16, 26) thereof encapsulate and embed said magnetic elements (18, 28) thereof within said thickness thereof, between the strip and the respective membrane carried thereon. two flexible strips (10, 20); each strip (10,20) having a main axis and comprising a plurality of magnetic elements (18, 28) of the closure; said strips (10, 20) each carrying a membrane (19, 29) of the closure connected to a side of the respective strip and facing each other with the membranes when brought into contact therebetween by means of an attracting force generated by said magnetic elements (18, 28), such that a sealing is provided; wherein said strips (10, 20) each have a thickness thereof; characterised in that said strips (10, 20) each have a plurality of cavities (16, 26) therewithin within said thickness; and for each of said strips said cavities (16, 26) thereof encapsulate and embed said magnetic elements (18, 28) thereof within said thickness thereof, between the strip and the respective membrane carried thereon.
Use of a non-solid detergent composition comprising (a) more than 60 to 98 % by weight of one or more alkoxylated alcohols having at least 6 C atoms in the alcohol portion and an average degree of alkoxylation of greater than 2, (b) optionally up to 10 % by weight of an antifoaming agent, and (c) water in an amount of from 2 to 40 % by weight, each based on the total weight of the detergent composition, to promote the removal of soils or stains from washable textiles and fabrics. (a) more than 60 to 98 % by weight of one or more alkoxylated alcohols having at least 6 C atoms in the alcohol portion and an average degree of alkoxylation of greater than 2, (b) optionally up to 10 % by weight of an antifoaming agent, and (c) water in an amount of from 2 to 40 % by weight, each based on the total weight of the detergent composition, to promote the removal of soils or stains from washable textiles and fabrics.
Sensor arrangement having a layer arrangement, wherein the layer arrangement has a bottom layer, a middle layer and a top layer, wherein the middle layer is arranged at least partially on the bottom layer and is in contact therewith, and wherein the top layer is arranged at least partially on the middle layer and is in contact therewith, wherein the bottom layer and the top layer are electrically contactable for conductivity measurement and/or resistance measurement, wherein the middle layer is porous, wherein the top layer is porous and has an active measuring surface, and wherein the layer arrangement has a non-planar orientation, characterized in that the layer arrangement is configured in a tubular manner.
A security structure comprising: - at least one non-opaque micro-region, - at least one diffractive optical element of the digital type generating at least one interference pattern in an image-forming plane at a distance from the diffractive optical element, superposed, at least partially, onto the non-opaque micro-region, characterized in that the non-opaque micro-region has a cross section that is less than or equal to 1000000 μm 2. - at least one non-opaque micro-region, - at least one diffractive optical element of the digital type generating at least one interference pattern in an image-forming plane at a distance from the diffractive optical element, superposed, at least partially, onto the non-opaque micro-region, characterized in that the non-opaque micro-region has a cross section that is less than or equal to 1000000 μm 2.
An LED lamp, comprising: a lamp holder; a lamp bulb shell; a light emitting unit, the lamp bulb shell covering the light emitting unit, a bottom of the lamp bulb shell being fixed on the lamp holder; and a reflecting unit received in the lamp bulb shell, the reflecting unit comprising a reflecting member, the reflecting member being fixed on the lamp holder, the reflecting member comprising an annular reflecting surface, the reflecting surface of the reflecting member facing the lighting emitting unit for reflecting light generated by the light emitting unit towards a bottom of the lamp bulb shell; wherein the LED lamp further comprises a heat transfer substrate, the heat transfer substrate is disk-shaped, the light emitting unit comprises a plurality of LED light sources, the LED light sources are mounted on a periphery of the heat transfer substrate and spaced from each other, the reflecting member is annular, disk-shaped and defines a through hole at a central portion thereof, the reflecting surface of the reflecting member comprising a first annular surface and a second annular surface, characterized in that the first annular surface is at a central portion of the reflecting member and has a diameter gradually decreasing along a direction away of the light emitting unit, and the second annular surface is connected to a periphery of the first annular surface and cooperatively form a V-shaped cross section. a lamp holder; a lamp bulb shell; a light emitting unit, the lamp bulb shell covering the light emitting unit, a bottom of the lamp bulb shell being fixed on the lamp holder; and a reflecting unit received in the lamp bulb shell, the reflecting unit comprising a reflecting member, the reflecting member being fixed on the lamp holder, the reflecting member comprising an annular reflecting surface, the reflecting surface of the reflecting member facing the lighting emitting unit for reflecting light generated by the light emitting unit towards a bottom of the lamp bulb shell; wherein the LED lamp further comprises a heat transfer substrate, the heat transfer substrate is disk-shaped, the light emitting unit comprises a plurality of LED light sources, the LED light sources are mounted on a periphery of the heat transfer substrate and spaced from each other, the reflecting member is annular, disk-shaped and defines a through hole at a central portion thereof, the reflecting surface of the reflecting member comprising a first annular surface and a second annular surface, characterized in that the first annular surface is at a central portion of the reflecting member and has a diameter gradually decreasing along a direction away of the light emitting unit, and the second annular surface is connected to a periphery of the first annular surface and cooperatively form a V-shaped cross section.
A method for compensation of variations of movements and/or forces of a suspended load, in particular a load suspended from a movable or moving structure, more in particular a load suspended from a floating vessel, comprising the steps of: connecting a first hoisting cable and a second hoisting cable with the load in parallel; suspending the load from the first and second hoisting cables (11, 13), wherein the first hoisting cable exerts a first lifting force on the load including a spring force for passive heave compensation on the load and wherein the second hoisting cable exerts a second lifting force on the load for active heave compensation on the load; characterized in that the method comprises the step of active heave compensation on the load by controlling a position and/or movement of the load by compensating, in particular reducing, at least part of the passive heave compensation spring force by adjusting the second lifting force and/or a length of the second hoisting cable. connecting a first hoisting cable and a second hoisting cable with the load in parallel; suspending the load from the first and second hoisting cables (11, 13), wherein the first hoisting cable exerts a first lifting force on the load including a spring force for passive heave compensation on the load and wherein the second hoisting cable exerts a second lifting force on the load for active heave compensation on the load; characterized in that the method comprises the step of active heave compensation on the load by controlling a position and/or movement of the load by compensating, in particular reducing, at least part of the passive heave compensation spring force by adjusting the second lifting force and/or a length of the second hoisting cable.
A system for mounting dual X2 10 Gigabit uplink I/O devices (26a, 26b) to a single rack-unit switch having a chassis with a front surface having a first region for holding 48 ports for connecting to end-devices and a second region having a limited area for holding the dual X2 10 Gigabit uplink I/O devices, single rack-unit switch including a motherboard for connection to the dual X2 10 Gigabit uplink I/O devices, said system comprising: a dual-sided printed circuit board, having an upper side and a lower side; a first connector mounted on the upper side and connected to traces on the upper side of the dual-sided printed circuit board; a second connector mounted on the lower side and connected to traces on the lower side of the dual-sided printed circuit board; a first X2 module mounted on the upper side of the dual-sided printed circuit board and coupled to the first connector; a second X2 module mounted upside down relative to the first X2 module on the lower side of the dual-sided printed circuit board and coupled to the second connector; a mechanical support (40, 42), connected to the bottom of the chassis and passing through the motherboard, for holding the dual-sided printed circuit board above the motherboard to create a space between the second X2 module and the motherboard; and a vertical connector connecting traces on the upper and lower sides the dual-sided printed circuit board to traces on the motherboard. a dual-sided printed circuit board, having an upper side and a lower side; a first connector mounted on the upper side and connected to traces on the upper side of the dual-sided printed circuit board; a second connector mounted on the lower side and connected to traces on the lower side of the dual-sided printed circuit board; a first X2 module mounted on the upper side of the dual-sided printed circuit board and coupled to the first connector; a second X2 module mounted upside down relative to the first X2 module on the lower side of the dual-sided printed circuit board and coupled to the second connector; a mechanical support (40, 42), connected to the bottom of the chassis and passing through the motherboard, for holding the dual-sided printed circuit board above the motherboard to create a space between the second X2 module and the motherboard; and a vertical connector connecting traces on the upper and lower sides the dual-sided printed circuit board to traces on the motherboard.