mhurhangee/patent-ind-claim-en huggingface dataset:
Method for monitoring the state of a sliding bearing operated with lubricating oil for a rotating component, in which a physical variable that is characteristic of the bearing is measured by at least one sensor and is fed to a control unit (ECU) for state monitoring, characterized by the following steps: - from at least one physical sliding bearing model (N-V-F) to which at least the rotational speed (n) and the torque (M) are fed as input variables (u: n, M, T_sump), the control unit (ECU) determines at least one state variable (s; T; p) of the sliding bearing and/or of the lubricating oil as output variable (y); - using at least one sensor , measurement values are ascertained and output variables y are correlated with measurement values, the output vector containing state variables (s; T; p); - from a comparison of the measured value of the state variable (s; T; p) with the value of the state variable (s; T; p) calculated in a model-based manner as output variables (y), non-measurable or non-measured state variables of the sliding bearing are available for the state and function monitoring and also documentation (classification and storage) and subsequent interpretation. - from at least one physical sliding bearing model (N-V-F) to which at least the rotational speed (n) and the torque (M) are fed as input variables (u: n, M, T_sump), the control unit (ECU) determines at least one state variable (s; T; p) of the sliding bearing and/or of the lubricating oil as output variable (y); - using at least one sensor , measurement values are ascertained and output variables y are correlated with measurement values, the output vector containing state variables (s; T; p); - from a comparison of the measured value of the state variable (s; T; p) with the value of the state variable (s; T; p) calculated in a model-based manner as output variables (y),
A pneumatic controller for an inline valve, comprising: a manifold having a low pressure port , a high pressure port , an actuator port , and a vent ; a selector movable within the manifold between a first position and a second position, the low pressure port in fluid communication with the actuator port in the first position, the high pressure port in fluid communication with the actuator port in the second position; and a biasing member supported within the manifold and urging the selector towards the first position, characterised in that the low pressure port is in fluid communication with the vent in both the first position and the second position to cool the biasing member with low pressure fluid received at the low pressure port. a manifold having a low pressure port , a high pressure port , an actuator port , and a vent ; a selector movable within the manifold between a first position and a second position, the low pressure port in fluid communication with the actuator port in the first position, the high pressure port in fluid communication with the actuator port in the second position; and a biasing member supported within the manifold and urging the selector towards the first position, characterised in that the low pressure port is in fluid communication with the vent in both the first position and the second position to cool the biasing member with low pressure fluid received at the low pressure port.
An inkjet printer apparatus comprising an ink tank configured to store ink; a print head configured to eject the ink; characterised in that the ink jet printer apparatus comprises also: a makeup fluid tank configured to store a makeup fluid for adjusting a viscosity of ink; and, a light-emitting element and a light-receiving element attached to the makeup fluid tank ; wherein light emitted from the light-emitting element is black light with a wavelength having a peak value of 200 nm or more and 400 nm or less; the makeup fluid in the makeup fluid tank includes at least a solvent and a fluorescent color material absorbing light of the light-emitting element and emitting visible light; and the light-receiving element configured to detect light of the makeup fluid emitted by irradiated light from the light-emitting element . an ink tank configured to store ink; a print head configured to eject the ink; characterised in that the ink jet printer apparatus comprises also: a makeup fluid tank configured to store a makeup fluid for adjusting a viscosity of ink; and, a light-emitting element and a light-receiving element attached to the makeup fluid tank ; wherein a makeup fluid tank configured to store a makeup fluid for adjusting a viscosity of ink; and, a light-emitting element and a light-receiving element attached to the makeup fluid tank ; wherein light emitted from the light-emitting element is black light with a wavelength having a peak value of 200 nm or more and 400 nm or less; the makeup fluid in the makeup fluid tank includes at least a solvent and a fluorescent color material absorbing light of the light-emitting element and emitting visible light; and the light-receiving element configured to detect light of the makeup fluid emitted by irradiated light from the light-emitting element .
A fan system for a ventilation arrangement, the fan system comprising; a housing having a system air outlet ; a first downstream centrifugal fan arrangement provided within the housing including a shroud for directing air toward the system air outlet ; a second upstream centrifugal fan arrangement situated in-line with the first fan arrangement within the housing and including a shroud for directing air toward the system air outlet ; the system including a displaceable fan shroud section common to both the fan arrangements , , which displaceable fan shroud section is displaceable to alter the airflow characteristics of the system with respect to the airflow able to pass to the air outlet from the respective fan arrangements , ; wherein the displaceable fan shroud section is displaceable between a first position in which the displaceable fan shroud section extends across the airflow outlet from the second fan arrangement between the first downstream fan and the housing to block flow from the second fan arrangement and act as an airflow guide surface for the first fan arrangement , and a second position in which the displaceable fan shroud section extends across the airflow outlet from the first fan arrangement to block flow from the first fan arrangement and act as an airflow guide surface for the second fan arrangement such that the air passes from the second fan arrangement to the system air outlet between the displaceable shroud section and the housing .
Method for applying a serrated rear edge to a blade rear edge of a rotor blade of a wind turbine that has a pressure side and a suction side , comprising the steps: - disposing the serrated rear edge , with an attaching portion, on a surface of the blade rear edge , and - attaching the serrated rear edge , in the region of the attaching portion, to the rotor blade by means of adhesive, - the serrated rear edge being disposed on the suction side and being additionally fixed by application of an overlapping dimensionally stable material strip to the pressure side , and - the dimensionally stable material strip being disposed on the pressure side and on the serrated rear edge such that it completely overlaps a transition between the blade rear edge and the serrated rear edge , or - the serrated rear edge being disposed on the pressure side and additionally fixed by application of an overlapping dimensionally stable material strip to the suction side , and - the dimensionally stable material strip being disposed on the suction side and on the serrated rear edge such that it completely overlaps a transition between the blade rear edge and the serrated rear edge . - disposing the serrated rear edge , with an attaching portion, on a surface of the blade rear edge , and - attaching the serrated rear edge , in the region of the attaching portion, to the rotor blade by means of adhesive, - the serrated rear edge being disposed on the suction side and being additionally fixed by application of an overlapping dimensionally stable material strip to the pressure side , and - the dimensionally stable material strip being disposed on the pressure side and on the serrated rear edge such that it completely overlaps a transition between the blade rear edge and the serrated rear edge , or - the serrated rear edge being disposed on the pressure side and additionally fixed by application of an overlapping dimensionally stable material strip to the suction side , and - the dimensionally stable material strip being disposed on the suction side and on the serrated rear edge such that it completely overlaps a transition between the blade rear edge and the serrated rear edge .
Method for detecting oncoming transport vehicles in a track-bound transport system , having the steps: - actively transmitting detectable sensor signals by way of a first transport vehicle situated on a track, - scanning a track section lying in the forward direction by way of a second transport vehicle which is situated on the track and is approaching the first transport vehicle , - detecting the sensor signals transmitted by the first transport vehicle by way of the second transport vehicle , wherein in order to perform the method an ADAS system is used, which is supplemented by an identifying of sensor signals from oncoming transport vehicles . - actively transmitting detectable sensor signals by way of a first transport vehicle situated on a track, - scanning a track section lying in the forward direction by way of a second transport vehicle which is situated on the track and is approaching the first transport vehicle , - detecting the sensor signals transmitted by the first transport vehicle by way of the second transport vehicle , wherein in order to perform the method an ADAS system is used, which is supplemented by an identifying of sensor signals from oncoming transport vehicles .
Ulipristal acetate (17α,-acetoxy-11β-[4- N , N -dimethylamino-phenyl)-19-norpregna-4, 9-diene-3, 20-dione), or a metabolite thereof selected from the group consisting of CDB-3877, CDB-3963, CDB-3236, and CDB-4183, for use in treating or preventing leiomyomatosis or metastatic leiomyoma in a patient.
A steering controller (50; 154) to control a motor (41; 151) in accordance with a command value (T p *; T a *) calculated in response to a steering state, the motor being a source of a driving force to be provided to a steering operation mechanism configured to steer a steered wheel of a vehicle, the steering controller (50; 154) comprising a first calculation circuit (62; 163) to calculate a target rotation angle (θ p *) of a rotator in accordance with the steering state, the rotator being a component of the steering operation mechanism and being configured to rotate in conjunction with steering of the steered wheel , and a second calculation circuit (64; 164) to calculate the command value (T p *; T a *) by performing feedback control such that an actual rotation angle (θ p ) of the rotator corresponds to the target rotation angle (θ p *), the steering controller being characterized by comprising a compensation control circuit to calculate a compensation amount (θ pb , θ pc , θ pd ) in response to the steering state so as to compensate for at least one of an inertia component, a viscosity component, and a spring component of the steering operation mechanism in accordance with the target rotation angle (θ p *) of the rotator , the compensation amount (θ pb , θ pc , θ pd ) being reflected in the command value (T p *; T a *), wherein the compensation control circuit includes a compensation amount calculation circuit to calculate the compensation amount (θ pb , θ pc , θ pd ) in accordance with the target rotation angle (θ p *) calculated by the first calculation circuit , and an adder to add the compensation amount (θ pb , θ pc , θ pd ) to the target rotation angle (θ p *) so as to calculate a final target rotation angle (θ p *(FINAL)) to be used for the calculation of the command value (T p *; T a *), the compensation amount (θ pb , θ pc , θ pd ) being calculated by the compensation amount calculation circuit , the target rotation angle (θ p *) being calculated by the first calculation circuit (62; 163). a compensation amount calculation circuit to calculate the compensation amount (θ pb , θ pc , θ pd ) in accordance with the target rotation angle (θ p *) calculated by the first calculation circuit , and an adder to add the compensation amount (θ pb , θ pc , θ pd ) to the target rotation angle (θ p *) so as to calculate a final target rotation angle (θ p *(FINAL)) to be used for the calculation of the command value (T p *; T a *), the compensation amount (θ pb , θ pc , θ pd ) being calculated by the compensation amount calculation circuit , the target rotation angle (θ p *) being calculated by the first calculation circuit (62; 163).
A method for correcting variations of parameters of components of active magnetic bearing and/or assembly of active magnetic bearing as a whole, in which before using an active magnetic bearing for the first time at an operating unit, at first parameters and/or variations of parameters, such as mechanical and/or electrical and/or installation variations and/or other variations of parameters of at least some components of the active magnetic bearing assembly and/or of the whole active magnetic bearing assembly, are detected and are directly and/or in the form of correction values based on the detected parameters and/or variations of parameters stored in the memory (M), which is a part of the active magnetic bearing assembly, whereby this stored data is subsequently used after installation of the magnetic bearing assembly for adjusting a system for detecting position of a rotating working means in the active magnetic bearing during the operation of the active magnetic bearing, characterized in that the detected parameters and/or variations of parameters and/or correction values based on the detected parameters and/or variations of parameters are recorded in the memory (M), before using the active magnetic bearing for the first time at the operating unit and this data remains in the memory (M) as a whole during its entire service life.
Use of a photopolymer formulation comprising matrix polymers, writing monomers and photoinitiators for producing holographic media, wherein the matrix polymers are polyurethanes, characterized in that the writing monomers contain aromatic compounds of formula (I) in which two or three of the radicals R 1 , R 2 , R 3 , R 4 , R 5 , R 6 are a radical of formula (II) bonded to the aromatic ring via X wherein in formula (II) X marks the position of the radical of formula (II) by means of which this radical is bonded to the aromatic ring, A represents a linear or branched, optionally oxygen- or nitrogen-containing hydrocarbon chain, the remaining radicals R 1 , R 2 , R 3 , R 4 , R 5 , R 6 are each independently of one another hydrogen or an organic radical and R 7 is hydrogen or methyl.
A control method for automatically positioning an inner tub of a pulsator washing machine comprising an inner tub having a bottom, an outer tub having a bottom and a motor for driving the inner tub, wherein a positioning hole is formed in the bottom of the inner tub, a positioning pin is arranged at the bottom of the outer tub, and the positioning pin is provided with a structure capable of driving the positioning pin to extend and retract, characterized in that , the control method comprises: step 1, weighing is performed to determine a weight of a load, after the motor stops rotating, the inner tub continues rotating under its own inertia at a speed v by an angle α which is determined according to the weight of the load; step 2, the motor is then controlled to drive the inner tub at the speed v, and when the inner tub rotates to a position where an included angle between the positioning hole and the positioning pin is less than or equal to α, the positioning pin is released, and the motor stops rotating; and step 3, the released positioning pin presses against the bottom of the inner tub, the inner tub continues rotating under the effect of inertia, and when the inner tub rotates to the position where the positioning hole is aligned with the positioning pin, the positioning pin automatically stretches into the positioning hole to thereby position and lock inner tub. step 1, weighing is performed to determine a weight of a load, after the motor stops rotating, the inner tub continues rotating under its own inertia at a speed v by an angle α which is determined according to the weight of the load; step 2, the motor is then controlled to drive the inner tub at the speed v, and when the inner tub rotates to a position where an included angle between the positioning hole and the positioning pin is less than or equal to α, the positioning pin is released, and the motor stops rotating; and step 3, the released positioning pin presses against the bottom of the inner tub, the inner tub continues rotating under the effect of inertia, and when the inner tub rotates to the position where the positioning hole is aligned with the positioning pin, the positioning pin automatically stretches into the positioning hole to thereby position and lock inner tub.
A solar cell comprising: a silicon substrate ; a dielectric material above the silicon substrate; a material layer (302A+302B) above the dielectric material , the material layer (302A+302B) comprising a polycrystalline silicon layer and having P-type and N-type doped regions and a plurality of recast poly signatures ; a dielectric material stack above the poly-crystalline silicon layer, the dielectric material stack comprising a first dielectric layer and a second dielectric layer , wherein the first dielectric layer is disposed above the material layer (302A+302B) and the second dielectric layer is disposed directly on the material layer (302A+302B); a plurality of conductive contacts through the dielectric material stack with each of the plurality of conductive contacts being in alignment with one of the plurality of recast poly signatures in the poly-crystalline silicon layer; and wherein the dielectric material stack comprises a silicon nitride layer , and wherein the dielectric material stack further comprises a silicon dioxide layer between the poly-crystalline silicon layer and the silicon nitride layer . a silicon substrate ; a dielectric material above the silicon substrate; a material layer (302A+302B) above the dielectric material , the material layer (302A+302B) comprising a polycrystalline silicon layer and having P-type and N-type doped regions and a plurality of recast poly signatures ; a dielectric material stack above the poly-crystalline silicon layer, the dielectric material stack comprising a first dielectric layer and a second dielectric layer , wherein the first dielectric layer is disposed above the material layer (302A+302B) and the second dielectric layer is disposed directly on the material layer (302A+302B); a plurality of conductive contacts through the dielectric material stack with each of the plurality of conductive contacts being in alignment with one of the plurality of recast poly signatures in the poly-crystalline silicon layer; and wherein the dielectric material stack comprises a silicon nitride layer , and wherein the dielectric material stack further comprises a silicon dioxide layer between the poly-crystalline silicon layer and the silicon nitride layer .
An induction heating coil comprising: a primary coil to which electric power is supplied; and a ring-shaped secondary coil forming a closed circuit, characterized in that the primary coil comprises a base-side portion that covers an outer periphery of the secondary coil and a distal-side portion extending from the base-side portion in a center axis direction of the secondary coil in a state in which the base-side portion covers the secondary coil , and an inner diameter of the base-side portion is greater than an inner diameter of the distal-side portion , and wherein the secondary coil is provided such that the secondary coil is removably inserted into the primary coil from the base-side portion of the primary coil . a primary coil to which electric power is supplied; and a ring-shaped secondary coil forming a closed circuit, characterized in that the primary coil comprises a base-side portion that covers an outer periphery of the secondary coil and a distal-side portion extending from the base-side portion in a center axis direction of the secondary coil in a state in which the base-side portion covers the secondary coil , and an inner diameter of the base-side portion is greater than an inner diameter of the distal-side portion , and wherein the secondary coil is provided such that the secondary coil is removably inserted into the primary coil from the base-side portion of the primary coil .
A dispensing device for unpacked goods, in particular bakery goods such as bread, bread rolls, or the like, having at least one support frame and having at least one drawer-type insert that in the assembled state is inserted into the support frame , wherein the drawer-type insert delineates a goods receptacle space , at least one bin-type receptacle for the goods being located in said goods receptacle space , and wherein the drawer-type insert has at least one forward opening by way of which the goods receptacle space and the bin-type receptacle are accessible, and wherein the drawer-type insert has at least one transparent door and at least one door guide which in relation to the assembled and set-up state of the dispensing device is disposed in the upper region of the opening , wherein the door has at least two guide pins , and wherein the door guide furthermore has a first guide clearance and a second guide clearance in which the guide pins are guided in such a manner that the door by means of a combined tilting/rotating movement, followed by an insertion movement that in relation to the assembled and set-up state of the dispensing device runs in a substantially obliquely upward manner, is at least partially lowerable into the goods receptacle space and wherein at least one damping element by means of which the movement of the door is capable of being decelerated is provided.
A decorative sheet comprising: a substrate ; and a surface protective layer comprising a first surface protective layer formed on the substrate , and a second surface protective layer formed on part of the first surface protective layer , wherein the second surface protective layer contains at least one of resin beads and an inorganic compound filler, and the first surface protective layer is glossier than the second surface protective layer , characterized in that the first surface protective layer contains a urethane-bonding thermosetting resin, and the surface protective layer has a surface kinetic friction coefficient evaluated by a slip test as described in the description and compliant with JIS P8147:2010 of 0.11 or more and 0.30 or less. a substrate ; and a surface protective layer comprising a first surface protective layer formed on the substrate , and a second surface protective layer formed on part of the first surface protective layer , wherein the second surface protective layer contains at least one of resin beads and an inorganic compound filler, and the first surface protective layer is glossier than the second surface protective layer , characterized in that the first surface protective layer contains a urethane-bonding thermosetting resin, and the surface protective layer has a surface kinetic friction coefficient evaluated by a slip test as described in the description and compliant with JIS P8147:2010 of 0.11 or more and 0.30 or less.