mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a safety system of an elevator system having - a control unit, - a bus, - a plurality of bus nodes which are connected to the control unit via the bus, and characterized by a plurality of subscribers (61a-63a, 74a, 75, 76, 87, 88, 89), of which at least one subscriber is designed as a temporary subscriber, that are connected to the control unit via a bus node, wherein - the temporary subscriber is registered in the safety system by - A) the temporary subscriber being connected to the safety system at a bus node, - B) the temporary subscriber being recognised by the control unit - C) the temporary subscriber being integrated into the safety system by the control unit and - D) the temporary subscriber being activated at least once. - a control unit, - a bus, - a plurality of bus nodes which are connected to the control unit via the bus, and characterized by a plurality of subscribers (61a-63a, 74a, 75, 76, 87, 88, 89), of which at least one subscriber is designed as a temporary subscriber, that are connected to the control unit via a bus node, wherein - the temporary subscriber is registered in the safety system by - A) the temporary subscriber being connected to the safety system at a bus node, - B) the temporary subscriber being recognised by the control unit - C) the temporary subscriber being integrated into the safety system by the control unit and - D) the temporary subscriber being activated at least once. - A) the temporary subscriber being connected to the safety system at a bus node, - B) the temporary subscriber being recognised by the control unit - C) the temporary subscriber being integrated into the safety system by the control unit and - D) the temporary subscriber being activated at least once.
A package for in particular food products, which is assembled from at least two preformed foil half shells (12, 14), which are preformed in such a way that they each have a receiving space (16, 18) for a product to be received and a flange (20, 22) at least partially surrounding the receiving space (16, 18), wherein the flanges (20, 22) are designed to be attached to one another, at least partially, to connect the foil half shells (12, 14), wherein a first flange of a first foil half shell has a first radial extent, based on the receiving space, which is greater by a projection than the second radial extent of the second flange of the second foil half shell, in such a way that, when connected, the first flange is bent over in the region of its projection in the direction of the receiving space in such a way that it at least partially encompasses the second flange with its projection and the second flange is at least partially encompassed on both sides by the first flange.
Rotation angle sensor, comprising a stator element, a rotor element mounted rotatably about an axis of rotation with respect to the stator element, wherein the rotation angle can be detected by an inductive coupling between the rotor element and the stator element, characterized in that at least one compensation element (1, 2, 3) is arranged at the stator element, wherein the at least one compensation element (1, 2, 3) comprises at least one compensation transmitting coil (22, 28) for emitting an electromagnetic compensation alternating field and at least one compensation receiving coil for receiving electromagnetic alternating fields, wherein the rotor element comprises at least one first electrically conducting section (32, 36), wherein the at least one first electrically conducting section (32, 36) is arranged at the rotor element in such a way, and is inductively coupled with the at least one compensation transmitting coil (22, 28) and the at least one compensation receiving coil of the compensation element (1, 2, 3) in such a way that when the electromagnetic compensation alternating field is emitted by the at least one compensation transmitting coil (22, 28) a compensation alternating voltage induced in the at least one first compensation receiving coil depends predominantly on a relative radial arrangement of the stator element and of the rotor element to one another with respect to the axis of rotation.
A device for supporting the human foot, wherein the device comprises at least one first layer, which forms an arch at least in a central region of the device, and at least one second layer, which is connected to the first layer in a first connection region of a first end region in a heel region of the device and in a second connection region of a second end region in a forefoot region of the device, wherein the device comprises at least one deflection element (105, 115), which is arranged between the first connection region and the second connection region and at least partially between the first layer and the second layer, such that the first layer and the second layer have, at the location of the deflection element, a spacing from each other that is predefined by the at least one deflection element (105, 115), wherein the second layer is tensioned between the first connection region and the second connection region via the at least one deflection element (105, 115), and wherein the second layer is designed such that tension acting in the second end region during dorsal flexion of the device is transmitted, via the at least one deflection element (105, 115), to the first layer in the first end region in such a way that the dorsal flexion leads to an increase in a height of the arch formed by the first layer. wherein the device comprises at least one deflection element (105, 115), which is arranged between the first connection region and the second connection region and at least partially between the first layer and the second layer, such that the first layer and the second layer have, at the location of the deflection element, a spacing from each other that is predefined by the at least one deflection element (105, 115), wherein the second layer is tensioned between the first connection region and the second connection region via the at least one deflection element (105, 115), and wherein the second layer is designed such that tension acting in the second end region during dorsal flexion of the device is transmitted, via the at least one deflection element (105, 115), to the first layer in the first end region in such a way that the dorsal flexion leads to an increase in a height of the arch formed by the first layer.
A body support assembly (110; 210) comprising: a first foam layer (130; 230) having a lower surface (134; 234); a second foam layer (136; 236) supporting the first foam layer (130; 230) and having an upper surface (138; 238) in facing relation to the lower surface (134; 234), wherein at least one of the upper and lower surfaces (138, 134; 238, 234) is at least partially defined by a non-planar surface to thereby define a plurality of passages (142; 242) between the first and second foam layers (130, 136; 230, 236); a fan (118; 218) positioned to move air through the passages (142; 242); a sensor (126; 226) positioned adjacent or in an internal chamber of the body support assembly (110,210) that detects a parameter and produces a signal; and a controller (128; 228) directly coupled to the sensor (126; 226) and programmed to directly control the fan (118; 218) based on the signal. a first foam layer (130; 230) having a lower surface (134; 234); a second foam layer (136; 236) supporting the first foam layer (130; 230) and having an upper surface (138; 238) in facing relation to the lower surface (134; 234), wherein at least one of the upper and lower surfaces (138, 134; 238, 234) is at least partially defined by a non-planar surface to thereby define a plurality of passages (142; 242) between the first and second foam layers (130, 136; 230, 236); a fan (118; 218) positioned to move air through the passages (142; 242); a sensor (126; 226) positioned adjacent or in an internal chamber of the body support assembly (110,210) that detects a parameter and produces a signal; and a controller (128; 228) directly coupled to the sensor (126; 226) and programmed to directly control the fan (118; 218) based on the signal.
A denitration system comprising: a denitrator comprising a denitration catalyst which, with a reducing agent injected into a nitrogen oxide in a flue gas, denitrates the nitrogen oxide and a casing; an economizer for preheating a boiler feed water by the flue gas heat exchange, arranged downstream of the denitrator; an expansion joint duct for connecting of an exit of the denitrator and an inlet of the economizer; and a supporting structure for holding loads of the denitrator, the expansion joint duct and the economizer, wherein the expansion joint duct has a downstream length to ensure mixing of the reducing agent and sulfur trioxide in the flue gas exhausted from the denitrator; the supporting structure provides a denitrator supporting beam for supporting loads of the casing, the denitration catalyst and a denitration catalyst supporting beam which holds the denitration catalyst in the denitrator, and an economizer supporting beam which supports loads of the expansion joint duct and the economizer; the economizer is supported by the economizer supporting beam, the expansion joint duct is supported by the economizer supporting beam through the economizer, whereby the economizer is suspended from the expansion joint duct, and whereby the economizer supporting beam is connected to the supporting structure. a denitrator comprising a denitration catalyst which, with a reducing agent injected into a nitrogen oxide in a flue gas, denitrates the nitrogen oxide and a casing; an economizer for preheating a boiler feed water by the flue gas heat exchange, arranged downstream of the denitrator; an expansion joint duct for connecting of an exit of the denitrator and an inlet of the economizer; and a supporting structure for holding loads of the denitrator, the expansion joint duct and the economizer, wherein the expansion joint duct has a downstream length to ensure mixing of the reducing agent and sulfur trioxide in the flue gas exhausted from the denitrator; the supporting structure provides a denitrator supporting beam for supporting loads of the casing, the denitration catalyst and a denitration catalyst supporting beam which holds the denitration catalyst in the denitrator, and an economizer supporting beam which supports loads of the expansion joint duct and the economizer; the economizer is supported by the economizer supporting beam, the expansion joint duct is supported by the economizer supporting beam through the economizer, whereby the economizer is suspended from the expansion joint duct, and whereby the economizer supporting beam is connected to the supporting structure.
A magneto-elastic sensor comprising: a longitudinally extending shaft like member (4, 4'), which is subject to a load (F, F') introducing mechanic stress in the member (4, 4'), at least one magneto-elastically active region directly or indirectly attached to or forming a part of the member (4, 4') in such a manner that the mechanic stress is transmitted to the active region, said active region comprising at least one magnetically polarized region such that the polarization (P61, P62) becomes increasingly helically shaped as the applied stress increases; a magnetic field sensor means arranged proximate the at least one magneto-elastically active region for outputting a signal (S*) corresponding to a stress-induced magnetic flux emanating from the magnetically polarized region; characterized in that the magnetic sensor means comprising a first (L1, L1*, Lx1, Ly1) and a second (L2, L2*, Lx2, Ly2) direction sensitive magnetic field sensor having 180° opposite sensing directions (S1, S2, Sx1, Sx2, Sy1, Sy2), wherein a shear stress is determined based on measurement data of the first and second direction sensitive magnetic field sensors, wherein the magnetic field sensors are arranged to have a predetermined and fixed spatial coordination with the member (4, 4'), wherein the member (4, 4') is an at least partially hollow shaft and all magnetic field sensors (L, L1, L2, L1*, L2*, Lx1, Lx2, Ly1, Ly2) of the sensor means are entirely arranged inside the interior of the hollow shaft. a longitudinally extending shaft like member (4, 4'), which is subject to a load (F, F') introducing mechanic stress in the member (4, 4'), at least one magneto-elastically active region directly or indirectly attached to or forming a part of the member (4, 4') in such a manner that the mechanic stress is transmitted to the active region, said active region comprising at least one magnetically polarized region such that the polarization (P61, P62) becomes increasingly helically shaped as the applied stress increases; a magnetic field sensor means arranged proximate the at least one magneto-elastically active region for outputting a signal (S*) corresponding to a stress-induced magnetic flux emanating from the magnetically polarized region; characterized in that the magnetic sensor means comprising a first (L1, L1*, Lx1, Ly1) and a second (L2, L2*, Lx2, Ly2) direction sensitive magnetic field sensor having 180° opposite sensing directions (S1, S2, Sx1, Sx2, Sy1, Sy2), wherein a shear stress is determined based on measurement data of the first and second direction sensitive magnetic field sensors, wherein the magnetic field sensors are arranged to have a predetermined and fixed spatial coordination with the member (4, 4'), wherein the member (4, 4') is an at least partially hollow shaft and all magnetic field sensors (L, L1, L2, L1*, L2*, Lx1, Lx2, Ly1, Ly2) of the sensor means are entirely arranged inside the interior of the hollow shaft.
Method for controlling phytopathogenic fungi of the genus Phoma spp. comprising applying Coniothyrium minitans strain CON/M/91-08 in an effective amount to the root system of a plant, to harvest residues or to the soil on which a crop plant grows or is intended to grow.
A method for producing a multi-layer oral thin film comprising the steps of a) providing a solution, an emulsion, a foam or a suspension comprising at least one first polymer and at least one plasticiser, b) processing the solution, the emulsion, the foam or the suspension from step a) in order to obtain a polymer film, wherein the amount of the at least one plasticiser is 0.1 to 50 wt.%, in relation to the total weight of the polymer film, c) applying a powder comprising at least one second substance, to the polymer film, wherein the at least one second substance comprises polyethylene oxide, with an average molecular weight of 7,000,000 g/mol, and d) forming a composite between the polymer film and the powder applied in step c). a) providing a solution, an emulsion, a foam or a suspension comprising at least one first polymer and at least one plasticiser, b) processing the solution, the emulsion, the foam or the suspension from step a) in order to obtain a polymer film, wherein the amount of the at least one plasticiser is 0.1 to 50 wt.%, in relation to the total weight of the polymer film, c) applying a powder comprising at least one second substance, to the polymer film, wherein the at least one second substance comprises polyethylene oxide, with an average molecular weight of 7,000,000 g/mol, and d) forming a composite between the polymer film and the powder applied in step c).
Method for producing a press-hardened component comprising at least the following process steps conducted either immediately consecutively in sequence or not: a) Providing a blank containing a hardenable Steel alloy, und b1) Heating the blank, c1) Hot forming the heated blank in a pressing tool to create a hot formed component and d1) Quench hardening the component that has been hot formed it the pressing tool to obtain the presshardened component or b2) Preforming the blank to create a preformed component without heating the blank, c2) Heating the preformed component, d2) Hot forming the heated, preformed component in a pressing tool to create a hot formed component and e2) Quench hardening the hot formed component in the pressing tool to obtain the press-hardened component characterised in that the blank during process steps b1) and b2) and the component formed from the blank during process step c1), d1) and c2) to e2) are each continuously tested by sensor means to obtain state variables that are assignable to the blank and to the component that is created from the blank, the state variables obtained by sensor means are subjected to a tolerance-weighted evaluation, in which a control or regulating signal is generated if at least one state variable detected during a given process step falls outside a predetermined tolerance, which control or regulating signal influences at least one process parameter that characterised as least the given process step, or diverts the blank or component concerned away from the subsequent sequence of process steps, and the sensor-based detection is performed using electromagnetic and/or acoustic sensors to obtain state variables that are assignable to the blank and to the component formed from the blank in a nondestructive test method. a) Providing a blank containing a hardenable Steel alloy, und b1) Heating the blank, c1) Hot forming the heated blank in a pressing tool to create a hot formed component and d1) Quench hardening the component that has been hot formed it the pressing tool to obtain the presshardened component or b2) Preforming the blank to create a preformed component without heating the blank, c2) Heating the preformed component, d2) Hot forming the heated, preformed component in a pressing tool to create a hot formed component and e2) Quench hardening the hot formed component in the pressing tool to obtain the press-hardened component
Control method for using a core drilling system including a core drilling machine and an advancing device for driving the core drilling machine along a machine-holding device, comprising the following method steps - moving the core drilling machine in a first direction; - positioning a drill bit connected to the core drilling machine onto the surface of a mineral material to be worked for carrying out a core drilling operation; - detecting the position of the surface of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined parameter of the advancing device in the form of a first reference value; - moving the core drilling machine in a second direction (C'); - operating the core drilling machine in a predetermined tapping mode; - moving the core drilling machine in the first direction; - detecting the position of the surface of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined drilling parameter in the form of a second reference value; - activating a water supply; and - activating an open-loop and closed-loop control device for adapting at least one predetermined drilling parameter in dependence on at least one predetermined parameter of the advancing device. - moving the core drilling machine in a first direction; - positioning a drill bit connected to the core drilling machine onto the surface of a mineral material to be worked for carrying out a core drilling operation; - detecting the position of the surface of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined parameter of the advancing device in the form of a first reference value; - moving the core drilling machine in a second direction (C'); - operating the core drilling machine in a predetermined tapping mode; - moving the core drilling machine in the first direction; - detecting the position of the surface of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined drilling parameter in the form of a second reference value; - activating a water supply; and - activating an open-loop and closed-loop control device for adapting at least one predetermined drilling parameter in dependence on at least one predetermined parameter of the advancing device.
An endoscope system comprising: an endoscope that includes a radiation optical system for radiating a beam emitted from a beam source onto a subject and an imaging optical system containing an imaging device for imaging the subject and a type check information storage unit that stores type information about the imaging device mounted on the endoscope; a control unit to which the endoscope removably connects; a beam source control unit (57, 56, 43b) that controls emission beam intensity of the beam source according to a beam quantity specified value input from the control unit; and a type check unit that checks a type of the imaging device mounted on the endoscope which is connected to the control unit, the type check unit being adapted to read out the type information about the imaging device from the type information storage unit of the endoscope connected to the control unit to determine the type of the imaging device, wherein the beam source control unit has a plurality of control patterns for expressing a relationship between the beam quantity specified value and a control output value to be given to the beam source, switches to any one of the control patterns according to the check result obtained by the type check unit, and controls the emission beam intensity of the beam source according to the switched control pattern, wherein the beam source control unit switches the control pattern according to a type of the shutter system of the imaging device. an endoscope that includes a radiation optical system for radiating a beam emitted from a beam source onto a subject and an imaging optical system containing an imaging device for imaging the subject and a type check information storage unit that stores type information about the imaging device mounted on the endoscope; a control unit to which the endoscope removably connects; a beam source control unit (57, 56, 43b) that controls emission beam intensity of the beam source according to a beam quantity specified value input from the control unit; and a type check unit that checks a type of the imaging device mounted on the endoscope which is connected to the control unit, the type check unit being adapted to read out the type information about the imaging device from the type information storage unit of the endoscope connected to the control unit to determine the type of the imaging device, wherein the beam source control unit has a plurality of control patterns for expressing a relationship between the beam quantity specified value and a control output value to be given to the beam source, switches to any one of the control patterns according to the check result obtained by the type check unit, and controls the emission beam intensity of the beam source according to the switched control pattern, wherein the beam source control unit switches the control pattern according to a type of the shutter system of the imaging device.
Vitamin B2 for use in the therapeutic prevention of overweight, obesity, excessive fat accumulation and metabolic disorders associated with either of the foregoing in the offspring, wherein the vitamin B2 is to be administered to the mother before pregnancy, during pregnancy and/or during lactation wherein associated metabolic disorders in the offspring are selected from the group consisting of: cardiovascular diseases such as coronary heart disease; insulin resistance; type 2 diabetes; hypertension; sleep apnea, respiratory problems and /or dyslipidemia; stroke; liver and gallbladder disease; osteoarthritis; and/or gynecological problems.