mhurhangee/ep-ind-claims huggingface dataset:
A method for safe parameterization of electronic devices, in particular of safe inputs and/or outputs and/or safety functions of an electronic device, wherein parameter values intended for parameterization are selected or entered via a user interface of an electronic control device, and are subsequently transmitted to the electronic device; characterized in that before being transmitted to the electronic device, the selected or entered parameter values are stored in at least one random access memory that is accessible by the control device, and are read back from the memory at least once before being transmitted to the electronic device, for the purpose of verifying the safe parameterization; wherein, after having been selected or entered, the following steps are performed for each individual parameter value in an automated process routine: - storing the parameter value in the memory accessible by the control device; - deleting the parameter value on a user display of the control device; and - reestablishing the user display by reading back the stored parameter value; and in that the step of storing selected or entered parameter values comprises the steps of a respective safe modification of a parameter value to be modified in a random access memory by performing a check of checksums based on the selected or entered parameter values, thereby ensuring that only the actual parameter value to be modified is modified in the case of an entry, and that all parameter values in the random access memory are blocked for modification before editing a parameter, and are checked for corruption after the parameter has been edited, by pre-calculating the checksum to be expected of the parameter values in the random access memory, modifying a parameter value, and checking the actual checksum of the parameter values in the random access memory by comparing the pre-calculated with the actual checksum; and wherein the step of storing selected or entered parameter values further comprises safe storage and loading of parameter values in or from a non-volatile memory. - storing the parameter value in the memory accessible by the control device; - deleting the parameter value on a user display of the control device; and - reestablishing the user display by reading back the stored parameter value; and in that
A locking device including a state detection device for a door, a gate and the like, the locking device comprising a lock cylinder for a lock for the door, the gate and the like, wherein the state detection device is adapted for arrangement in a receptacle of a fastener for the lock cylinder provided in the locking device and is designed as a fastener for the lock cylinder for fastening the lock cylinder to the lock, and - wherein the state detection device comprises an open-state detection device arranged therein for detecting a closed state of the door, the gate and the like. - wherein the state detection device comprises an open-state detection device arranged therein for detecting a closed state of the door, the gate and the like.
Method for melt-preparation of lignin-based fibers, characterized in that it comprises: a/ the intimate blending (11, 12) of the components of a formulation comprising: - lignin, - a plasticizer miscible with said lignin, - and a cross-linking agent capable of cross-linking with said lignin, in conditions in which no cross-linking of the cross-linking agent and of the lignin occurs, b/ the spinning of the intimate blend thus obtained in a hot extrusion device comprising an extrusion head in a terminal part, in order to form continuous threads, by application in said extrusion device of conditions such that: - the temperatures applied in said extrusion device are higher than the glass-transition temperature of said intimate blend, - and the temperatures, the residence time of said intimate blend in said extrusion device and the residence time of said intimate blend in said extrusion head are such that the cross-linking reaction of the cross-linking agent and lignin is initiated only in the extrusion head, c/ when appropriate, the drawing of the threads obtained in order to form lignin-based fibers of great length, with the cross-linking agent being chosen in such a way that the cross-linking reaction thereof with said lignin is initiated in a time less than said residence time of said intimate blend in said extrusion head at temperatures above a temperature at least 10°C greater than the glass-transition temperature of said intimate blend of said lignin and of said plasticizer. a/ the intimate blending (11, 12) of the components of a formulation comprising: - lignin, - a plasticizer miscible with said lignin, - and a cross-linking agent capable of cross-linking with said lignin, in conditions in which no cross-linking of the cross-linking agent and of the lignin occurs, - lignin, - a plasticizer miscible with said lignin, - and a cross-linking agent capable of cross-linking with said lignin, b/ the spinning of the intimate blend thus obtained in a hot extrusion device comprising an extrusion head in a terminal part, in order to form continuous threads, by application in said extrusion device of conditions such that: - the temperatures applied in said extrusion device are higher than the glass-transition temperature of said intimate blend, - and the temperatures, the residence time of said intimate blend in said extrusion device and the residence time of said intimate blend in said extrusion head are such that the cross-linking reaction of the cross-linking agent and lignin is initiated only in the extrusion head, - the temperatures applied in said extrusion device are higher than the glass-transition temperature of said intimate blend, - and the temperatures, the residence time of said intimate blend in said extrusion device and the residence time of said intimate blend in said extrusion head are such that the cross-linking reaction of the cross-linking agent and lignin is initiated only in the extrusion head, c/ when appropriate, the drawing of the threads obtained in order to form lignin-based fibers of great length,
A sheet product supplying apparatus for supplying a plurality of sheet products one by one, the apparatus comprising: a feeding conveyor by which the sheet products stacked with each other in a shifted state are fed; an additional conveyor disposed on upper side of the feeding conveyor and extending in a feeding direction of the sheet products; a sensor by which a front end of the sheet product is detected; characterized by a control device connected to the feeding conveyor, the additional conveyor and the sensor to control the feeding conveyor and the additional conveyor based on detection signal from the sensor, the feeding conveyor being stopped by the control device so that a first sheet product is gripped between the additional conveyor and the feeding conveyor at a downstream end of the additional conveyor, the feeding conveyor being subsequently reversed by the control device so that subsequent sheet products are moved back by the feeding conveyor to be separated from the first sheet product, the additional conveyor being subsequently driven by the control device so that the first sheet product is supplied by and downstream of the additional conveyor, the feeding conveyor being subsequently driven by the control device so that the subsequent sheet products are fed by the feeding conveyor. a feeding conveyor by which the sheet products stacked with each other in a shifted state are fed; an additional conveyor disposed on upper side of the feeding conveyor and extending in a feeding direction of the sheet products; a sensor by which a front end of the sheet product is detected; characterized by a control device connected to the feeding conveyor, the additional conveyor and the sensor to control the feeding conveyor and the additional conveyor based on detection signal from the sensor, the feeding conveyor being stopped by the control device so that a first sheet product is gripped between the additional conveyor and the feeding conveyor at a downstream end of the additional conveyor, the feeding conveyor being subsequently reversed by the control device so that subsequent sheet products are moved back by the feeding conveyor to be separated from the first sheet product, the additional conveyor being subsequently driven by the control device so that the first sheet product is supplied by and downstream of the additional conveyor, the feeding conveyor being subsequently driven by the control device so that the subsequent sheet products are fed by the feeding conveyor.
A method of producing an islands-in-sea type composite spun fiber having an island component diameter of 1 μm or less, the method comprising drawing with a total draw ratio of from 20 to 100 an undrawn islands-in-sea type composite spun fiber that has been spun at a spinning speed of from 100 to 1,000 m/min at temperatures higher than the glass transition points of both of the polyester polymers forming the sea component and the island components of the islands-in-sea type composite spun fiber, wherein the number of island components is from 10 to 37.
Method for starting a continuous steam generator having a combustion chamber comprising a number of burners, a water-steam separation device being arranged downstream of the evaporator tubes thereof on the flow medium side, with the firing power of at least one of the burners being adjusted as a function of a fill level characteristic value for the water-steam separation device.
Device for producing mirror units for heliostats comprising a main body as carrier of a reflective surface, comprising a fixing carriage to ensure stress-free mounting of the main body during production, and comprising the following features: a) a feed for main bodies by means of a mirror carrier delivery feed, b) a feed for fixing carriages by means of running rails, wherein the fixing carriages have, on each transverse side, means for a two-point mounting of a main body and thus ensure stress-free mounting, c) a device for transferring a main body into a fixing carriage, d) a mirror feed, e) an adhesive bonding device, f) a device for pressing on a main body with a plurality of mirrors, and g) a measuring device for checking relevant tolerances of the production process. a) a feed for main bodies by means of a mirror carrier delivery feed, b) a feed for fixing carriages by means of running rails, wherein the fixing carriages have, on each transverse side, means for a two-point mounting of a main body and thus ensure stress-free mounting, c) a device for transferring a main body into a fixing carriage, d) a mirror feed, e) an adhesive bonding device, f) a device for pressing on a main body with a plurality of mirrors, and g) a measuring device for checking relevant tolerances of the production process.
A manifold for use in a medicament dispenser device for the delivery of medicament powder from an open blister pocket of a blister pack, the manifold comprising a body, said body defining chimneys (850a, 850b) each having a chimney inlet (852a, 852b) and a chimney exit (854a, 854b) for directing an airflow from said chimney inlet (852a, 852b) to said chimney exit (854a, 854b); the body further defining a chamber having a chamber inlet and a chamber exit, wherein the chimney exit and said chamber inlet lie side-by-side each other such that when said open blister pocket of said blister pack is positioned adjacent thereto said airflow may be directed from the chimney exit to the chamber inlet via the open blister pocket to entrain said medicament powder and enable transport thereof in the airflow from the chamber inlet to said chamber outlet, wherein the chimney is arranged to create turbulence in the airflow at the open blister pocket, wherein said plural chimney exits (854a, 854b) direct airflow at the open blister pocket, characterized in that said plural chimney exits (854a, 854b) are positioned such that in use, plural airflow jets (843a, 843b) are directed towards each other at different and conflicting angles towards the blister pocket, and wherein the plural chimneys (854a, 854b) are at an angle relative to each other of from 150° to 30°.
A method for selecting a core network device, comprising: determining, by an access network device, an equipment type of a user equipment, UE; characterized by when the equipment type is a machine type communication, MTC, UE, determining, by the access network device, an MTC group identifier corresponding to the UE; and when the MTC group identifier corresponds to a core network device, selecting, by the access network device, the core network device corresponding to the MTC group identifier as a core network device which the UE accesses. determining, by an access network device, an equipment type of a user equipment, UE; characterized by when the equipment type is a machine type communication, MTC, UE, determining, by the access network device, an MTC group identifier corresponding to the UE; and when the MTC group identifier corresponds to a core network device, selecting, by the access network device, the core network device corresponding to the MTC group identifier as a core network device which the UE accesses.
A synthetic leather comprising at least a base (i), an adhesive layer (ii), and a skin layer (iii), the adhesive layer (ii) being formed of a urethane resin composition including a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material, the skin layer (iii) being formed of a urethane resin composition including an anionic urethane resin having an anionic group concentration of 0.25 mmol/g or less, water, and an anionic surfactant, wherein the aromatic polyisocyanate includes toluene diisocyanate. the adhesive layer (ii) being formed of a urethane resin composition including a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material, the skin layer (iii) being formed of a urethane resin composition including an anionic urethane resin having an anionic group concentration of 0.25 mmol/g or less, water, and an anionic surfactant, wherein the aromatic polyisocyanate includes toluene diisocyanate.
A multistage compressor in which an electric motor is mounted at substantially the center in a sealed housing, a low-stage compression mechanism and a high-stage compression mechanism which are driven by the electric motor via a rotating shaft are mounted below and above the electric motor, with the electric motor therebetween, and two-stage compression is performed by discharging intermediate-pressure refrigerant gas compressed by the low-stage compression mechanism into the sealed housing and then sucking the intermediate-pressure refrigerant gas into the high-stage compression mechanism, whereby a first oil separation plate that centrifugally separates lubricating oil contained in the intermediate-pressure refrigerant gas that is to be sucked into the high-stage compression mechanism after circulating in the electric motor is provided so that part of a bearing that supports one end of the rotating shaft is inserted, charactreized in that the first oil separation plate is rotated with the rotor of the electric motor.
A spin current magnetization reversal element comprising: a first ferromagnetic metal layer with a changeable magnetization direction; and a spin-orbit torque wiring, wherein a z direction is defined as a direction perpendicular to a surface of the first ferromagnetic metal layer, the spin-orbit torque wiring extends in a x direction intersecting the z direction, and the spin-orbit torque wiring is bonded to a first surface of the first ferromagnetic metal layer, wherein the spin-orbit torque wiring includes a pure spin current generator which is bonded to the first surface of the first ferromagnetic metal layer and a low-resistance portion which is connected to each of both ends of the pure spin current generator in the x direction and which is formed of a material having a smaller electrical resistivity than the pure spin current generator, wherein the low-resistance portion includes a first low-resistance portion and a second low-resistance portion which are separated from each other with the pure spin current generator interposed therebetween, a width of the spin-orbit torque wiring in a y direction is constant, when a direction which is orthogonal to the x direction and the z direction is set as the y direction, the pure spin current generator has a configuration wherein a cross-section of the pure spin current generator, which is orthogonal to the z direction, has an area which increases continuously and/or stepwisely as the cross-section recedes in the z direction from a bonding surface of the pure spin current generator bonded to the first ferromagnetic metal layer. a first ferromagnetic metal layer with a changeable magnetization direction; and a spin-orbit torque wiring, wherein a z direction is defined as a direction perpendicular to a surface of the first ferromagnetic metal layer, the spin-orbit torque wiring extends in a x direction intersecting the z direction, and the spin-orbit torque wiring is bonded to a first surface of the first ferromagnetic metal layer, wherein the spin-orbit torque wiring includes a pure spin current generator which is bonded to the first surface of the first ferromagnetic metal layer and a low-resistance portion which is connected to each of both ends of the pure spin current generator in the x direction and which is formed of a material having a smaller electrical resistivity than the pure spin current generator, wherein the low-resistance portion includes a first low-resistance portion and a second low-resistance portion which are separated from each other with the pure spin current generator interposed therebetween, a width of the spin-orbit torque wiring in a y direction is constant, when a direction which is orthogonal to the x direction and the z direction is set as the y direction, the pure spin current generator has a configuration wherein a cross-section of the pure spin current generator, which is orthogonal to the z direction, has an area which increases continuously and/or stepwisely as the cross-section recedes in the z direction from a bonding surface of the pure spin current generator bonded to the first ferromagnetic metal layer.
Lighting unit for use in a luminaire, in particular in a luminaire for road and/or street lighting, wherein said lighting unit comprises an LED light source and a primary optics formed by a lens, wherein said lens comprises a light entry region formed by a cavity, at least a light emitting portion of the LED light source being arranged within said cavity, wherein the size of the cavity of the lens exceeds the size of the LED light source allowing multiple positioning of the LED light source within the cavity, and wherein a distribution of light emitted by the lens depends on the positioning of the LED light source (30, 30-1, 30-2) within the cavity, wherein the cavity of the lens has a longitudinal shape, wherein the extension of an illuminated area in a direction perpendicular and in a direction parallel to the longitudinal direction of the cavity depends on the positioning of the LED light source (30, 30-1, 30-2) within the cavity, whereas said lens - independent from the positioning of an LED light source (30, 30-1, 30-2) - provides a symmetric light distribution in the direction perpendicular to the longitudinal direction of the cavity and an asymmetric light distribution in the direction parallel to the longitudinal direction of the cavity, characterized in that shifting the position of the LED light source (30, 30-1, 30-2) within the cavity slightly adapts the asymmetric light distribution in the direction parallel to the longitudinal direction of the cavity and has a much stronger effect on the extension of the illuminated area in the direction perpendicular to the longitudinal direction of the cavity. wherein said lighting unit comprises an LED light source and a primary optics formed by a lens, wherein said lens comprises a light entry region formed by a cavity, at least a light emitting portion of the LED light source being arranged within said cavity, wherein the size of the cavity of the lens exceeds the size of the LED light source allowing multiple positioning of the LED light source within the cavity, and wherein a distribution of light emitted by the lens depends on the positioning of the LED light source (30, 30-1, 30-2) within the cavity, wherein the cavity of the lens has a longitudinal shape, wherein the extension of an illuminated area in a direction perpendicular and in a direction parallel to the longitudinal direction of the cavity depends on the positioning of the LED light source (30, 30-1, 30-2) within the cavity, whereas said lens - independent from the positioning of an LED light source (30, 30-1, 30-2) - provides a symmetric light distribution in the direction perpendicular to the longitudinal direction of the cavity and an asymmetric light distribution in the direction parallel to the longitudinal direction of the cavity, characterized in that shifting the position of the LED light source (30, 30-1, 30-2) within the cavity slightly adapts the asymmetric light distribution in the direction parallel to the longitudinal direction of the cavity and has a much stronger effect on the extension of the illuminated area in the direction perpendicular to the longitudinal direction of the cavity.
An arrangement for light emission, comprising a planar light guide element and at least one elongate LED circuit board which is arranged on a longitudinal side of the light guide element, light emitted by LEDs of the LED circuit board being coupled into the light guide element and being emitted via a flat side of the light guide element, and the arrangement having an elongate profile element for mounting the LED circuit board, the profile element also being used to mount an edge region of the light guide element and being fastened thereto by means of a spring force, characterized in that the profile element is fastened to the light guide element by means of a clamping element which extends from the profile element to an opposite side of the light guide element and is fixed on one side to the profile element and on the other side to a region of the light guide element that is opposite the profile element. and the arrangement having an elongate profile element for mounting the LED circuit board, the profile element also being used to mount an edge region of the light guide element and being fastened thereto by means of a spring force, characterized in that the profile element is fastened to the light guide element by means of a clamping element which extends from the profile element to an opposite side of the light guide element and is fixed on one side to the profile element and on the other side to a region of the light guide element that is opposite the profile element.
Vacuum packaging machine, wherein the machine is composed of a supporting and containing structure comprising at least one decompression chamber for vacuum packaging a product inside at least one bag or another suitable container placed in a vertical position, said chamber being composed of at least one tank adapted to be closed by at least one cover, said cover being equipped with a welding system composed of at least one welding bar and at least one membrane system, said tank comprising at least one cross-member, said cross-member being equipped with at least one abutment bar, said abutment bar being adapted to be pressed against said welding bar, characterised in that said decompression chamber is adapted for cooking said product contained inside said bag or said container and placed inside said chamber, and in that said cross-member is adapted to be extracted from said tank in order to increase the internal sizes of the chamber, in that said tank is adapted to be extracted from said supporting and containing structure, and in that it comprises low-temperature cooking means adapted to heat and mix water placed inside said chamber in order to perform a "sous vide" cooking of said product.