mhurhangee/ep-ind-claims huggingface dataset:
An interchangeable cylinder system for furniture locks, comprising - a cylinder housing, - a lock cylinder which can be inserted into and withdrawn from the cylinder housing from a face side thereof and which can be twisted between an opening position and a closing position in the cylinder housing about a longitudinal axis of the lock cylinder and the cylinder housing; - a rod-like unlocking element, - with the lock cylinder comprising a collar which protrudes radially to the longitudinal axis of the lock cylinder beyond the jacket surface of the lock cylinder and comprises an opening into which the rod-like unlocking element can be inserted, - with the jacket surface of the lock cylinder comprising an annular groove into which a locking element being configured as a platelet engages for securing the lock cylinder in the cylinder housing, - with an axial stop being integrally attached in the interior of the cylinder housing, through which a base region of the locking cylinder extends which is remote from the collar, - wherein the locking element rests in a recess which is provided on a side of the axial stop which faces away from the collar, - with the locking element being held in a spring-loaded manner in a locked position which engages into the annular groove and being displaceable by the unlocking element against the spring load out of the annular groove into a release position in which the lock cylinder can be removed from the cylinder housing, characterized in that - the locking element is arranged as a platelet which encloses the jacket of the lock cylinder. - a cylinder housing, - a lock cylinder which can be inserted into and withdrawn from the cylinder housing from a face side thereof and which can be twisted between an opening position and a closing position in the cylinder housing about a longitudinal axis of the lock cylinder and the cylinder housing; - a rod-like unlocking element, - with the lock cylinder comprising a collar which protrudes radially to the longitudinal axis of the lock cylinder beyond the jacket surface of the lock cylinder and comprises an opening into which the rod-like unlocking element can be inserted, - with the jacket surface of the lock cylinder comprising an annular groove into which a locking element being configured as a platelet engages for securing the lock cylinder in the cylinder housing, - with an axial stop being integrally attached in the interior of the cylinder housing, through which a base region of the locking cylinder extends which is remote from the collar, - wherein the locking element rests in a recess which is provided on a side of the axial stop which faces away from the collar, - with the locking element being held in a spring-loaded manner in a locked position which engages into the annular groove and being displaceable by the unlocking element against the spring load out of the annular groove into a release position in which the lock cylinder can be removed from the cylinder housing, - the locking element is arranged as a platelet which encloses the jacket of the lock cylinder.
A safety system comprising: a safety controller configured to execute a safety program; a collection unit configured to collect an input value over a predetermined period, the input value being a value of an input signal selected previously in one or a plurality of input signals input to the safety controller; and a visualization unit configured to reproduce a behavior of the safety program over the predetermined period based on the input value collected over the predetermined period, and to express visually an operating state of the safety program at an appointed point of time in the predetermined period, characterized in that: the visualization unit comprises: a unit configured to schematize and display a combination of commands comprised in the safety program, and a unit configured to change a display mode of a corresponding element comprised in the schematized display according to the input value, an internal value, and an output value, the internal value and the output value being calculated according to the input value. a safety controller configured to execute a safety program; a collection unit configured to collect an input value over a predetermined period, the input value being a value of an input signal selected previously in one or a plurality of input signals input to the safety controller; and a visualization unit configured to reproduce a behavior of the safety program over the predetermined period based on the input value collected over the predetermined period, and to express visually an operating state of the safety program at an appointed point of time in the predetermined period, characterized in that: the visualization unit comprises: a unit configured to schematize and display a combination of commands comprised in the safety program, and a unit configured to change a display mode of a corresponding element comprised in the schematized display according to the input value, an internal value, and an output value, the internal value and the output value being calculated according to the input value. a unit configured to schematize and display a combination of commands comprised in the safety program, and a unit configured to change a display mode of a corresponding element comprised in the schematized display according to the input value, an internal value, and an output value, the internal value and the output value being calculated according to the input value.
A method for manufacturing a fiber optic connector, the method comprising: determining a core offset direction of a ferrule assembly including a ferrule and an optical fiber stub secured within the ferrule, wherein the core offset direction is determined before a hub is mounted on the ferrule; providing a core offset direction identifier on the ferrule once the core offset direction has been identified; and rotationally orienting the hub on the ferrule using the core offset direction identifier. determining a core offset direction of a ferrule assembly including a ferrule and an optical fiber stub secured within the ferrule, wherein the core offset direction is determined before a hub is mounted on the ferrule; providing a core offset direction identifier on the ferrule once the core offset direction has been identified; and rotationally orienting the hub on the ferrule using the core offset direction identifier.
A tubeless radial tire, in particular for a heavy-load vehicle, having, when used as a single tire, a load-bearing capacity per millimeter section width at a speed of 60 km/h of at least 11 kg, characterized in that the tire has an outer diameter of less than 755 mm, and is adapted and configured for an internal pressure of at least 10 bar.
An optical sensing system for an aircraft having a fuel tank comprising: a. a system controller; b. a first sensor adapted for being positioned within an aircraft fuel tank; and c. a first optical fiber adapted for being positioned at least partially outside the aircraft fuel tank; and in which (i) the system controller comprises means for transmitting optical energy to the first sensor via the first optical fiber and; means for receiving optical data from the first sensor via the first optical fiber and (ii) the first sensor comprises; means adapted for being positioned within the fuel tank of the aircraft for converting received optical energy to electrical energy; and means adapted for being positioned within the fuel tank of the aircraft for transmitting optical data as available electrical energy permits characterized in that the first sensor is a self-managing, free-running sensor that operates independently of the system controller such that the sensor is not synchronised with the system controller. a. a system controller; b. a first sensor adapted for being positioned within an aircraft fuel tank; and c. a first optical fiber adapted for being positioned at least partially outside the aircraft fuel tank; and (i) the system controller comprises means for transmitting optical energy to the first sensor via the first optical fiber and; means for receiving optical data from the first sensor via the first optical fiber and means for transmitting optical energy to the first sensor via the first optical fiber and; means for receiving optical data from the first sensor via the first optical fiber and (ii) the first sensor comprises; means adapted for being positioned within the fuel tank of the aircraft for converting received optical energy to electrical energy; and means adapted for being positioned within the fuel tank of the aircraft for transmitting optical data as available electrical energy permits characterized in that the first sensor is a self-managing, free-running sensor that operates independently of the system controller such that the sensor is not synchronised with the system controller. means adapted for being positioned within the fuel tank of the aircraft for converting received optical energy to electrical energy; and means adapted for being positioned within the fuel tank of the aircraft for transmitting optical data as available electrical energy permits
A method of manufacturing a semiconductor device having one or more trenches (205, 905) with an insulation layer, wherein the one or more trenches with an insulation layer are manufactured using the steps of: i) performing an etching process to form the one or more trenches, whereby the trenches are formed in an upper surface of a substrate extending downwards in the substrate from its upper surface; ii) forming a first insulation layer on the upper surface of the substrate and a lower surface and sidewalls of the one or more trenches; iii) depositing a hydrophilic layer (206, 915) over the first insulation layer, wherein the hydrophilic layer comprises nitride and the hydrophilic layer has a thickness between 100nm and 250nm iv) depositing a photoresist material (208, 925) in the one or more trenches, wherein depositing a photoresist material comprises exposing the hydrophilic layer on an upper region of a first side of the one or more trenches, leaving the hydrophilic layer not in the upper region covered with the deposited photoresist material; v) performing a capillary wet etch process to etch the insulation layer on the sidewall of the first side of the one or more trenches to a predetermined distance below a surface of the photoresist material; vi) removing the photoresist material; vii) removing the hydrophilic layer; and after performing the wet etch process, removing the photoresist material, and removing the hydrophilic layer; viii) forming a second insulation (210, 945) layer on the sidewall of the first side of the one or more trenches. i) performing an etching process to form the one or more trenches, whereby the trenches are formed in an upper surface of a substrate extending downwards in the substrate from its upper surface; ii) forming a first insulation layer on the upper surface of the substrate and a lower surface and sidewalls of the one or more trenches; iii) depositing a hydrophilic layer (206, 915) over the first insulation layer, wherein the hydrophilic layer comprises nitride and the hydrophilic layer has a thickness between 100nm and 250nm iv) depositing a photoresist material (208, 925) in the one or more trenches, wherein depositing a photoresist material comprises exposing the hydrophilic layer on an upper region of a first side of the one or more trenches, leaving the hydrophilic layer not in the upper region covered with the deposited photoresist material; v) performing a capillary wet etch process to etch the insulation layer on the sidewall of the first side of the one or more trenches to a predetermined distance below a surface of the photoresist material; vi) removing the photoresist material; vii) removing the hydrophilic layer; and
A method for preparing a hollow fiber composite, the method comprising: preparing a polymer fiber; providing a precursor containing nitrogen onto the polymer fiber; and heat-treating the polymer fiber provided with the precursor, wherein the precursor is heat-treated to be converted into a catalyst including g-C 3 N 4 and the polymer fiber is heat-treated to have cavities formed therein, wherein the polymer fiber provided with the precursor is heat-treated at a temperature of 580°C or above and less than a temperature at which the polymer is carbonized. preparing a polymer fiber; providing a precursor containing nitrogen onto the polymer fiber; and heat-treating the polymer fiber provided with the precursor, wherein the precursor is heat-treated to be converted into a catalyst including g-C 3 N 4 and the polymer fiber is heat-treated to have cavities formed therein, wherein the polymer fiber provided with the precursor is heat-treated at a temperature of 580°C or above and less than a temperature at which the polymer is carbonized.
An arrangement comprising at least one outer ventilation duct (3, 4), at least one ventilation duct fitting (5, 20) and at least one sealing for sealing a joint between the at least one ventilation duct fitting and the at least one outer ventilation duct, each outer ventilation duct comprises at least one helically extending reinforcement bead (31, 41), and the sealing extends continuously around the external circumference of at least one end (22, 23) of the ventilation duct fitting, characterized in that the sealing comprises at least one protrusion (12, 12A-E), which extends outwards from the external circumference of the ventilation duct fitting (5, 20) for sealing against the inner circumference of the outer ventilation duct (3, 4), and at least one outer portion (13, 13A-J, 14) at the protrusion, wherein the protrusion and its outer portion are adapted to physically and continuously contact the inner circumference of the ventilation duct and an inner circumference of the reinforcement bead at the joint, which reinforcement bead (31, 41) forms a helically varying diameter of the outer ventilation duct, whereby the sealing is configured to achieve an air-tight seal of the joint between the ventilation duct fitting, the inner circumference of the outer ventilation duct and the helically varying inner duct circumference of the reinforcement bead by means of the protrusion (12, 12A-E) and its outer portion (13, 13A-J, 14) extending in different directions, wherein each outer portion (13, 13A-J) has at least one free end arranged at a distance from the protrusion (12, 12A-E), which distance, measured along a plane being substantially in parallel with the longitudinal direction of the ventilation duct fitting (5, 20), is at least equal to an inner height in a radial direction of the helical reinforcement bead (31, 41).
A packing ring having at least three ring segments each having a first segment end and a second segment end in the circumferential direction, wherein a first tangential contact surface of the first segment end of a ring segment abuts a second tangential contact surface of the second segment end of a ring segment adjoining it in the circumferential direction to create a radial seal of the packing ring and a first axial contact surface, facing toward a first axial ring end of the packing ring, of the first segment end of a ring segment abuts a second axial contact surface, facing toward a second axial ring end of the packing ring, of the second segment end of a ring segment adjoining it in the circumferential direction to create an axial seal of the packing ring, characterized in that at least one wear opening is provided on at least one ring segment, which extends from a radially outside outer circumferential surface and/or the second axial ring end of the ring segment in the direction of a radially inside inner circumferential surface of the ring segment, wherein a radially inside wear opening end of the at least one wear opening facing toward the inner circumferential surface is spaced apart in the radial direction of the ring segment from the radially inside inner circumferential surface of the ring segment at a distance which is at most 40% of a radial ring height extending between the outside outer circumferential surface and the radially inside inner circumferential surface of the ring segment, wherein the wear opening end is between the first and the second axial ring end (RE1, RE2) and is spaced apart from the first and second axial ring end (RE1, RE2), and wherein the wear opening end is exposed on the radially inside inner circumferential surface from a certain wear state of the packing ring, so that the wear opening connects the radially outside outer circumferential surface and/or the second axial ring end of the packing ring to the radially inside inner circumferential surface.
A flexible screen module, comprising: a casing comprising an opening; a first rotating shaft comprising an axial direction and being accommodated in the casing; a flexible screen capable of being wound around the first rotating shaft, and capable of being unwound from the first rotating shaft and extended out of the casing through the opening; a bracket fixed to the flexible screen and capable of being wound around the first rotating shaft along with the flexible screen, the bracket supporting the flexible screen in the axial direction; and a support member capable of being wound in the casing and capable of being extended out of the casing along with the flexible screen, characterized in that the support member comprising a curve memory characteristic in the axial direction; when located outside the casing, the support member being coupled with the bracket to support the bracket in a direction in which the flexible screen is extended. a casing comprising an opening; a first rotating shaft comprising an axial direction and being accommodated in the casing; a flexible screen capable of being wound around the first rotating shaft, and capable of being unwound from the first rotating shaft and extended out of the casing through the opening; a bracket fixed to the flexible screen and capable of being wound around the first rotating shaft along with the flexible screen, the bracket supporting the flexible screen in the axial direction; and a support member capable of being wound in the casing and capable of being extended out of the casing along with the flexible screen, characterized in that the support member comprising a curve memory characteristic in the axial direction; when located outside the casing, the support member being coupled with the bracket to support the bracket in a direction in which the flexible screen is extended.
A method of identifying a taste modulator comprising: a) contacting a cell comprising a functional taste receptor with a test compound; b) contacting the cell with a first reagent comprising a detectable label specific for a cell nucleus and with a second reagent comprising a second detectable label specific for the taste receptor; and c) detecting internalization of the taste receptor, wherein internalization of the taste receptor in the presence of the test compound indicates the test compound is a potential taste modulator; and wherein the functional taste receptor is a functional endogenous taste receptor. a) contacting a cell comprising a functional taste receptor with a test compound; b) contacting the cell with a first reagent comprising a detectable label specific for a cell nucleus and with a second reagent comprising a second detectable label specific for the taste receptor; and c) detecting internalization of the taste receptor, wherein internalization of the taste receptor in the presence of the test compound indicates the test compound is a potential taste modulator; and wherein the functional taste receptor is a functional endogenous taste receptor.
A heat storage apparatus comprising: a heat storage material that forms a clathrate hydrate by cooling; and a member having a surface with a plurality of holes, the plurality of holes being spaced at intervals of 1L to 10L, wherein an interval denotes the distance between two straight lines which are perpendicular to the surface of the member and which pass through the centers of two holes, and each of the plurality of holes having a hole diameter of 1D to 20D, in the case that the lattice constant of the clathrate hydrate is denoted by L and the outside diameter of a cage included in the clathrate hydrate is denoted by D. a heat storage material that forms a clathrate hydrate by cooling; and a member having a surface with a plurality of holes, the plurality of holes being spaced at intervals of 1L to 10L, wherein an interval denotes the distance between two straight lines which are perpendicular to the surface of the member and which pass through the centers of two holes, and each of the plurality of holes having a hole diameter of 1D to 20D, in the case that the lattice constant of the clathrate hydrate is denoted by L and the outside diameter of a cage included in the clathrate hydrate is denoted by D.
Battery having a first battery module, which has a first number (m) of first battery cells connected in series between a first pole of the first battery module and a second pole of the first battery module, wherein the first battery module has a first DC/DC converter and a second number (n) of second battery cells, wherein the second battery cells are connected in series directly between a first input and a second input of the first DC/DC converter, wherein a first output of the first DC/DC converter is connected to the first pole of the first battery module and a second output of the first DC/DC converter is connected to the second pole of the first battery module.
A method for preparing a formulation comprising clomazone, the method comprising the steps of: (i) combining microcapsules having a polymer shell and a core comprising clomazone, a solid carrier and a sulfonated lignin or naphthalene sulphonate to form a mixture; (ii) forming granules from the resulting mixture; (iii) applying a composition comprising a sulfonated lignin or naphthalene sulphonate to coat the granules; and (iv) drying the thus coated granules. (i) combining microcapsules having a polymer shell and a core comprising clomazone, a solid carrier and a sulfonated lignin or naphthalene sulphonate to form a mixture; (ii) forming granules from the resulting mixture; (iii) applying a composition comprising a sulfonated lignin or naphthalene sulphonate to coat the granules; and (iv) drying the thus coated granules.