mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a snack product (5, 5', 5"), comprising the following steps: a. An unformed fermentable dough product is placed in a lower baking tray half of a baking pan , and a solid filling material (7, 7', 7") is placed thereon; b. the baking pan is closed by means of an upper baking tray half, then sent to a fermentation device, where the dough is fermented, wherein the filling material is held essentially in a stable position in its original place by means of a limiting device that is provided in the upper baking tray half and protrudes in the direction of the filling material, while the dough expands in the baking pan thereby partially wrapping the filling material; c. after the fermentation process is concluded, the baking pan is sent to a baking apparatus, and the expanded dough is prebaked until reaching a predetermined consistency or is baked until done and ready for consumption and is optionally processed further, wherein the result is a snack product, in which the filling material is embedded in a dough wrapping , which filling is connected at least partially to the dough wrapping in a form-fit manner and/or by material connection, and wherein the snack product at its upper side comprises a continuous open channel formed by the limiting device , which channel extends over the entire length of the snack product. a. An unformed fermentable dough product is placed in a lower baking tray half of a baking pan , and a solid filling material (7, 7', 7") is placed thereon; b. the baking pan is closed by means of an upper baking tray half, then sent to a fermentation device, where the dough is fermented, wherein the filling material is held essentially in a stable position in its original place by means of a limiting device that is provided in the upper baking tray half and protrudes in the direction of the filling material, while the dough expands in the baking pan thereby partially wrapping the filling material; c. after the fermentation process is concluded, the baking pan is sent to a baking apparatus, and the expanded dough is prebaked until reaching a predetermined consistency or is baked until done and ready for consumption and is optionally processed further,
Method for producing at least one solid layer in accordance with predefined geometry data stored in a memory , wherein at least one emitter arrangement having multiple spaced-apart emitters in the form of material dispensing nozzles is provided to dispense portions of a material, that can be passed through nozzles, onto a substrate and/or a solidified material layer located on it, wherein the emitter arrangement has multiple emitter columns , in which the centre points of the emitters are each offset in relation to one another in a straight line, wherein the substrate is rotationally positioned about an axis of rotation relative to the emitter arrangement and, by means of the emitters , the material portions are applied to the substrate and/or the solidified material layer located on it and then solidified, wherein the centre point of that emitter of the emitter arrangement that is furthest away from the axis of rotation is at a first radial distance (R1) from the axis of rotation and the centre point of the emitter arranged closest to the axis of rotation is at a second radial distance (R2) from the axis of rotation , wherein a trigger signal defining trigger points for the rotational position of the emitter arrangement relative to the substrate is generated, wherein, for the individual emitters and on the basis of the geometry data stored in the memory and/or on the basis of the position at which the relevant emitter is arranged relative to the substrate when said relevant emitter is positioned at the respective trigger point relative to the emitter arrangement , a respective activation signal is generated and temporarily stored, wherein the emitters are each actuated at the trigger points in such a way that only those emitters at which the activation signal temporarily stored beforehand is provided dispense material, wherein the angle between mutually adjacent trigger points is selected such that it corresponds to the angle (α) formed between a first radial line and a second radial line , wherein the first radial line runs from the axis of rotation to the point of intersection of a first emitter column and a circular reference line that is concentric with the axis of rotation , and the second radial line runs from the axis of rotation to the point of intersection of a second emitter column , which is adjacent to the first emitter column in the circumferential direction of the axis of rotation , and the circular reference line , wherein the radius of the circular reference line is less than the sum of 90% of the first radial distance (R1) and 10% of the second radial distance (R2), and wherein the radius of the circular reference line is greater than the sum of 10% of the first radial distance (R1) and 90% of the second radial distance (R2).
A method for determining a wear-dependent quality value M of a carbon ceramic brake disc in a vehicle, wherein said quality value M depends monotonously on a conductivity s of said brake disc , said method comprising the steps of applying a voltage to a coil having an impedance Z , with said coil being at a distance d from said brake disc , performing measurements of a parameter P that is a function of said impedance Z , said distance d and said conductivity s , wherein values Pi of said parameter P are measured at N different frequencies fi with i = 1 to N and N > 1, and fitting a mathematical model describing said parameter P as a function of said frequencies fi , said distance d and said conductivity s to said measurements by varying said distance d and said conductivity s , and deriving said quality value M from a value of said conductivity s as obtained from fitting said mathematical model. applying a voltage to a coil having an impedance Z , with said coil being at a distance d from said brake disc , performing measurements of a parameter P that is a function of said impedance Z , said distance d and said conductivity s , wherein values Pi of said parameter P are measured at N different frequencies fi with i = 1 to N and N > 1, and fitting a mathematical model describing said parameter P as a function of said frequencies fi , said distance d and said conductivity s to said measurements by varying said distance d and said conductivity s , and deriving said quality value M from a value of said conductivity s as obtained from fitting said mathematical model.
A method, comprising performing traveling valve checks of a pumping unit to determine a leaked off traveling valve load value (LOTVL) and standing valve checks to determine a leaked off standing valve load value (LOSVL), characterized in that : based on the valve checks, determining said leaked off load values for the pumping unit and a residual friction value for the pumping unit; based on the leaked off load value and the residual friction value, determining a buoyant rod weight value of a rod of the pumping unit ; and based on the buoyant rod weight value and a pump depth value , determining a rod diameter estimate of the rod string, the rod diameter estimate to be used to determine a pump card of the pumping unit or to verify an accuracy of values obtained by a rod pump controller . based on the valve checks, determining said leaked off load values for the pumping unit and a residual friction value for the pumping unit; based on the leaked off load value and the residual friction value, determining a buoyant rod weight value of a rod of the pumping unit ; and based on the buoyant rod weight value and a pump depth value , determining a rod diameter estimate of the rod string, the rod diameter estimate to be used to determine a pump card of the pumping unit or to verify an accuracy of values obtained by a rod pump controller .
A system (200A, B, C) comprising: a tank that stores a fluid ; a conduit that includes a first end and a second end ; and a fan drive gear system (214; 602) of a gas turbine engine fluidly coupled to the first end of the conduit to receive at least a portion of the fluid conveyed by the conduit , wherein the fan drive gear system (214; 602) returns at least a portion of the fluid to a tank inlet of the tank , wherein the conduit is configured to convey at least a portion of the fluid stored in the tank from the second end of the conduit to the first end of the conduit , wherein the first end of the conduit is in fluid communication with a mechanism that draws at least a portion of fluid from the tank ; characterised in that a first end region of the conduit coinciding with the second end of the conduit has a first end region density and the fluid has a fluid density, and the first end region density is greater than or equal to the fluid density such that the first end region of the conduit remains immersed in the fluid stored in the tank when the fluid in the tank is under negative gravity conditions. a tank that stores a fluid ; a conduit that includes a first end and a second end ; and a fan drive gear system (214; 602) of a gas turbine engine fluidly coupled to the first end of the conduit to receive at least a portion of the fluid conveyed by the conduit , wherein the fan drive gear system (214; 602) returns at least a portion of the fluid to a tank inlet of the tank , wherein the conduit is configured to convey at least a portion of the fluid stored in the tank from the second end of the conduit to the first end of the conduit , wherein the first end of the conduit is in fluid communication with a mechanism that draws at least a portion of fluid from the tank ; characterised in that a first end region of the conduit coinciding with the second end of the conduit has a first end region density and the fluid has a fluid density, and the first end region density is greater than or equal to the fluid density such that the first end region of the conduit remains immersed in the fluid stored in the tank when the fluid in the tank is under negative gravity conditions.
Fluid recovery geocomposite , designed for the recovery of fluid in aggregates (S), which comprises, on the one hand, at least one sheet, called a through sheet , having permeability adapted to the passage of fluid (G, L) and provided with perforated mini-drains and, on the other hand, at least one sheet, called a barrier sheet , having permeability adapted to the blocking of fluid (G, L), the geocomposite being designed to be placed with the barrier sheet above the through sheet during the recovery of fluid in aggregates (S), the geocomposite being characterised in that the barrier sheet is needled on the through sheet except near the mini-drains , so that the barrier sheet forms a barrier to the passage of fluids (G, L) only around the mini-drains .
Filter apparatus, with a filter housing comprising a filter head , a filter bowl and a removable housing lid part , said filter housing receiving a filter element , which separates an unfiltered medium side from a filtrate side , and with a bypass valve device that comprises a valve closing element , which is preloaded by a closing spring into a closing position lying on a valve seat part and, if the filter element is blocked, moves into a position in which it releases a fluid channel from the unfiltered medium side to the filtrate side , bypassing the filter element , the valve closing element and the closing spring being arranged on the lid part and the valve seat part being located on an element cap of the filter element , said cap comprising a receiving part forming an edging for the end, facing the lid part , of the filter material of the filter element , characterised in that a ring made from uniformly distributed webs surrounds the outer circumference of the circular ring-shaped receiving part of the element cap , said webs being in the form of plates and extending with their flat surfaces in the radial direction and forming the supports for a circular ring-shaped receiving crown , which is located at an axial distance from the receiving part and at a radial distance from the outside of the remaining filter element .
A slide bearing comprising a base layer and a coating layer (5; 5'), wherein the coating layer (5; 5') is composed of at least two overlay layers (6, 61, 62; 61', 62', 63') and at least one intermediate layer (7; 71, 72), each located between adjacent ones of the at least two overlay layers (6, 61, 62; 61', 62', 63'), characterised in that the intermediate layer (7; 71, 72) comprises a layered metal portion in an intermetallic compound matrix , an area percentage of the layered metal portion being 60% to 95% of an area of the intermediate layer (7; 71, 72). wherein the coating layer (5; 5') is composed of at least two overlay layers (6, 61, 62; 61', 62', 63') and at least one intermediate layer (7; 71, 72), each located between adjacent ones of the at least two overlay layers (6, 61, 62; 61', 62', 63'), at least two overlay layers (6, 61, 62; 61', 62', 63') and at least one intermediate layer (7; 71, 72), each located between adjacent ones of the at least two overlay layers (6, 61, 62; 61', 62', 63'), characterised in that the intermediate layer (7; 71, 72) comprises a layered metal portion in an intermetallic compound matrix , an area percentage of the layered metal portion being 60% to 95% of an area of the intermediate layer (7; 71, 72).
A module for powering an electronic smoking device portion , the module comprising: a first coupling element adapted to connect to the electronic smoking device portion , a second coupling element adapted to connect to a portable electronic device , a power supply element adapted for powering the electronic smoking device portion , wherein the power supply element comprises an energy storage , wherein the module is adapted to supply energy, received from the portable electronic device via the second coupling element , to the energy storage , a controller unit configured to communicate with the portable electronic device , and characterized in that the controller is adapted to control charging of a battery of an electronic smoking device portion between puffs and to directly power an atomizer/liquid reservoir portion of the electronic smoking device portion during a puff. a first coupling element adapted to connect to the electronic smoking device portion , a second coupling element adapted to connect to a portable electronic device , a power supply element adapted for powering the electronic smoking device portion , wherein the power supply element comprises an energy storage , wherein the module is adapted to supply energy, received from the portable electronic device via the second coupling element , to the energy storage , a controller unit configured to communicate with the portable electronic device , and characterized in that the controller is adapted to control charging of a battery of an electronic smoking device portion between puffs and to directly power an atomizer/liquid reservoir portion of the electronic smoking device portion during a puff.
A pharmaceutically acceptable salt of a compound of formula C: wherein R 2 is hydrogen or hydroxyl, R 4 is unsubstituted alkyl, and R 16 is hydroxyl, alkoxy, or halogen, wherein alkyl includes saturated aliphatic groups, including straight-chain alkyl groups, branched-chain alkyl groups, cycloalkyl groups, alkyl substituted cycloalkyl groups, and cycloalkyl substituted alkyl groups. R 2 is hydrogen or hydroxyl, R 4 is unsubstituted alkyl, and R 16 is hydroxyl, alkoxy, or halogen, wherein alkyl includes saturated aliphatic groups, including straight-chain alkyl groups, branched-chain alkyl groups, cycloalkyl groups, alkyl substituted cycloalkyl groups, and cycloalkyl substituted alkyl groups.
A user equipment, UE, comprising: an handover, HO, module configured to: - in response to an Event A3 entry condition being satisfied determine a reference signal received power, RSRP, difference between an RSRP received from a neighbor cell and an RSRP received from a serving cell; and - when the RSRP difference is less than or equal to a first RSRP difference threshold and greater than a second RSRP difference threshold, to select a minimum TimeToTrigger, TTT; wherein the Event A3 entry condition relates to an RSRP of the neighbor cell becoming an offset greater than the RSRP of the serving cell, and the first RSRP difference threshold is set to a maximum RSRP difference for any possible HO success, wherein the maximum RSRP difference for any possible HO success means that a measured RSRP difference greater than the maximum RSRP difference very likely corresponds to HO failure. - in response to an Event A3 entry condition being satisfied determine a reference signal received power, RSRP, difference between an RSRP received from a neighbor cell and an RSRP received from a serving cell; and - when the RSRP difference is less than or equal to a first RSRP difference threshold and greater than a second RSRP difference threshold, to select a minimum TimeToTrigger, TTT;
Equipment for services interconnection of a tractor-trailer combination, in which a connector-plate ( 21; 46) of the services interconnection is carried by a moveable beam ( 20:45) that is mounted on the trailer and is slidable along a rail-defined path (10,11;47) between a retracted condition in which the connector-plate (21;46) is located over the front face ( 2; 42) of the trailer intermediate the sides (3,4;43, 44) of the trailer, and a deployed condition in which the connector-plate (21;46) is located projecting beyond one of the sides (4: 44) of the trailer to afford ground-access, characterized in that the rail-defined path is defined by at least one curved rail (10,11:47) along which the beam (20;45) slides.
A method for controlling an injection molding machine having a first configuration and a mold forming a mold cavity, the injection molding machine being controlled according to an injection cycle, the method comprising: obtaining a pattern for at least a portion of an injection cycle of an injection molding machine having a second configuration; operating the injection molding machine having the first configuration to inject a molten material into the mold cavity; while operating the injection molding machine having the first configuration, using the obtained pattern to control a portion of the injection cycle, characterized in that obtaining a pattern comprises obtaining a cavity pressure setpoint curve for the injection cycle of the injection molding machine having the second configuration, wherein operating the injection molding machine having the first configuration comprises: measuring a cavity pressure value of the mold cavity during the mold cycle; upon measuring a nominal cavity pressure value, commencing a pattern recognition portion of the injection cycle that is at least partially dependent on the obtained pattern, where a driving force being exerted on the molten material is adjusted such that the measured cavity pressure matches the obtained pattern for the injection cycle. obtaining a pattern for at least a portion of an injection cycle of an injection molding machine having a second configuration; operating the injection molding machine having the first configuration to inject a molten material into the mold cavity; while operating the injection molding machine having the first configuration, using the obtained pattern to control a portion of the injection cycle, characterized in that obtaining a pattern comprises obtaining a cavity pressure setpoint curve for the injection cycle of the injection molding machine having the second configuration, wherein operating the injection molding machine having the first configuration comprises: measuring a cavity pressure value of the mold cavity during the mold cycle; upon measuring a nominal cavity pressure value, commencing a pattern recognition portion of the injection cycle that is at least partially dependent on the obtained pattern, where a driving force being exerted on the molten material is adjusted such that the measured cavity pressure matches the obtained pattern for the injection cycle. measuring a cavity pressure value of the mold cavity during the mold cycle; upon measuring a nominal cavity pressure value, commencing a pattern recognition portion of the injection cycle that is at least partially dependent on the obtained pattern, where a driving force being exerted on the molten material is adjusted such that the measured cavity pressure matches the obtained pattern for the injection cycle.
Method for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal , wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the method comprising: generating a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency; amplifying or attenuating the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter; combining the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; and providing the bandwidth extended audio signal , wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency. generating a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency; amplifying or attenuating the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter; combining the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; and providing the bandwidth extended audio signal , wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency.