mhurhangee/patent-ind-claim-en huggingface dataset:
A method executed by one or more computing devices for performing functional testing of software, wherein the method comprises: storing , by at least one of the one or more computing devices, a plurality of statements in a plurality of cells, the method being characterized in that : the plurality of cells being organized in a plurality of columns and a plurality of rows, wherein the plurality of columns include a verification column and wherein each statement in the verification column corresponds to an acceptance criterion for a step of a functional test of the software; storing , by at least one of the one or more computing devices, a plurality of mappings linking the plurality of cells to a plurality of blocks of executable code, wherein each mapping in the plurality of mappings links a unique cell in the plurality of cells with a corresponding unique block of executable code in the plurality of blocks of executable code and wherein each block of executable code is configured to execute one or more commands on the software; executing , by at least one of the one or more computing devices, the plurality of blocks of executable code to produce an output by iterating through the plurality of cells and executing each executable block of code linked to each corresponding cell without parsing any textual content within the plurality of cells; and transmitting , by at least one of the one or more computing devices, an indication of whether the software meets one or more acceptance criteria in the verification column based at least in part on the output. the plurality of cells being organized in a plurality of columns and a plurality of rows, wherein the plurality of columns include a verification column and wherein each statement in the verification column corresponds to an acceptance criterion for a step of a functional test of the software; storing , by at least one of the one or more computing devices, a plurality of mappings linking the plurality of cells to a plurality of blocks of executable code, wherein each mapping in the plurality of mappings links a unique cell in the plurality of cells with a corresponding unique block of executable code in the plurality of blocks of executable code and wherein each block of executable code is configured to execute one or more commands on the software; executing , by at least one of the one or more computing devices, the plurality of blocks of executable code to produce an output by iterating through the plurality of cells and executing each executable block of code linked to each corresponding cell without parsing any textual content within the plurality of cells; and transmitting , by at least one of the one or more computing devices, an indication of whether the software meets one or more acceptance criteria in the verification column based at least in part on the output.
A method for modifying the operation of one or more hardware subsystems when a new context awareness service begins , comprising: determining a power budget for a plurality of operating context awareness services including the new context awareness service , wherein the power budget is based on a power requirement for each of the plurality of context awareness services , and wherein the power requirement for each of the plurality of context awareness services is based on power utilizations of the one or more hardware subsystems corresponding to the plurality of context awareness services ; allocating power resources to the one or more hardware subsystems based on importances of the plurality of context awareness services and/or the one or more hardware subsystems , wherein the allocation of the power resources is performed within the power budget; and determining, for the one or more hardware subsystems, a number of the plurality of context awareness services using a hardware subsystem; and assigning a higher importance to a hardware subsystem being used by a higher number of the plurality of context awareness services ; . determining a power budget for a plurality of operating context awareness services including the new context awareness service , wherein the power budget is based on a power requirement for each of the plurality of context awareness services , and wherein the power requirement for each of the plurality of context awareness services is based on power utilizations of the one or more hardware subsystems corresponding to the plurality of context awareness services ; allocating power resources to the one or more hardware subsystems based on importances of the plurality of context awareness services and/or the one or more hardware subsystems , wherein the allocation of the power resources is performed within the power budget; and determining, for the one or more hardware subsystems, a number of the plurality of context awareness services using a hardware subsystem; and assigning a higher importance to a hardware subsystem being used by a higher number of the plurality of context awareness services ; .
A method of determining an allowable vehicle state space of an articulated vehicle for safely completing a maneuver, characterized in that the allowable vehicle state space defines a part of a vehicle state space such that the allowable vehicle state space only comprises states from which the maneuver can be safely completed, wherein the vehicle state space comprises vehicle velocity, the method comprising; monitoring (S1) a drivable area ahead of the articulated vehicle , predicting (S2) a potentially swept area ahead of the articulated vehicle , wherein the potentially swept area represents an area that may be traversed by the articulated vehicle during the maneuver with a probability, based on an initial vehicle state of the articulated vehicle , a geometry of the articulated vehicle , and on error characteristics associated with one or more sensor input signals used for positioning the articulated vehicle , and determining (S3) the allowable vehicle state space such that the predicted potentially swept area does not extend beyond the drivable area ahead of the vehicle . a part of a vehicle state space such that the allowable vehicle state space only comprises states from which the maneuver can be safely completed, wherein the vehicle state space comprises vehicle velocity, the method comprising; monitoring (S1) a drivable area ahead of the articulated vehicle , predicting (S2) a potentially swept area ahead of the articulated vehicle , wherein the potentially swept area represents an area that may be traversed by the articulated vehicle during the maneuver with a probability, based on an initial vehicle state of the articulated vehicle , a geometry of the articulated vehicle , and on error characteristics associated with one or more sensor input signals used for positioning the articulated vehicle , and determining (S3) the allowable vehicle state space such that the predicted potentially swept area does not extend beyond the drivable area ahead of the vehicle .
Method for process monitoring in a mechanical joining process, the method comprising: receiving (S100) a plurality of measured values f i (x i ) during the performance of the mechanical joining process, wherein the measured values each relate at least 2 process variables f i , x i , where i = 1... n, to one another, performing (S110) a Fourier transform, wherein a number of Fourier coefficients (φ 1 , φ 2 ,...φ n, A 1 , A 2 ,...A n ) are determined for the measured values f i (x i ) , reducing (S120) the number of Fourier coefficients to an at least 2-dimensional subspace, thereby obtaining a measuring point (φ k , φ l ,....), (φ k , A l ,....) or (A k , A l ,....) , comparing (S130) the measuring point (φk, φl,.....), (φ k , Al,...) or (A k , A l ,...) with at least one reference point (R k , R l ,...), (R k , S l ,...) or (S k , S l ,...) in the at least 2-dimensional subspace, and determining (S140) a monitoring outcome on the basis of the comparison with the reference point . receiving (S100) a plurality of measured values f i (x i ) during the performance of the mechanical joining process, wherein the measured values each relate at least 2 process variables f i , x i , where i = 1... n, to one another, performing (S110) a Fourier transform, wherein a number of Fourier coefficients (φ 1 , φ 2 ,...φ n, A 1 , A 2 ,...A n ) are determined for the measured values f i (x i ) , reducing (S120) the number of Fourier coefficients to an at least 2-dimensional subspace, thereby obtaining a measuring point (φ k , φ l ,....), (φ k , A l ,....) or (A k , A l ,....) , comparing (S130) the measuring point (φk, φl,.....), (φ k , Al,...) or (A k , A l ,...) with at least one reference point (R k , R l ,...), (R k , S l ,...) or (S k , S l ,...) in the at least 2-dimensional subspace, and determining (S140) a monitoring outcome on the basis of the comparison with the reference point .
An optical sensor device , comprising - a semiconductor body having a light-sensitive area ; - metal layers arranged above the light-sensitive area and comprising an upper metal layer and a lower metal layer , the upper metal layer located at a greater distance from the light-sensitive area than the lower metal layer ; - an aperture opening in the metal layers above the light-sensitive area ; - a via structure arranged outside the aperture opening and pointwise interconnecting the metal layers and the semiconductor body ; wherein the via structure comprises a plurality of vias and a main extension plane of the metal layers is oriented parallel to the light-sensitive area , characterized in that - the via structure is arranged in such a fashion that any straight line (S) that is parallel to the light-sensitive area and traverses the aperture opening between the light-sensitive area and the upper metal layer is limited in both of its opposite directions by the via structure , such that there is no direct path through the via structure that is not limited by at least one of the vias ; and - each of the plurality of vias has a rectangular or a circular cross section. - a semiconductor body having a light-sensitive area ; - metal layers arranged above the light-sensitive area and comprising an upper metal layer and a lower metal layer , the upper metal layer located at a greater distance from the light-sensitive area than the lower metal layer ; - an aperture opening in the metal layers above the light-sensitive area ; - a via structure arranged outside the aperture opening and pointwise interconnecting the metal layers and the semiconductor body ; wherein the via structure comprises a plurality of vias and a main extension plane of the metal layers is oriented parallel to the light-sensitive area , characterized in that - the via structure is arranged in such a fashion that any straight line (S) that is parallel to the light-sensitive area and traverses the aperture opening between the light-sensitive area and the upper metal layer is limited in both of its opposite directions by the via structure , such that there is no direct path through the via structure that is not limited by at least one of the vias ; and - each of the plurality of vias has a rectangular or a circular cross section. - the via structure is arranged in such a fashion that any straight line (S) that is parallel to the light-sensitive area and traverses the aperture opening between the light-sensitive area and the upper metal layer is limited in both of its opposite directions by the via structure , such that there is no direct path through the via structure that is not limited by at least one of the vias ; and - each of the plurality of vias has a rectangular or a circular cross section.
A device for preparing tissue comprising: a container; a filter having a peripheral rim portion, wherein the filter is positioned within the container such that the peripheral rim portion engages at least one inner surface of the container to define a first tissue collection chamber and a second filtrate collection chamber; a flexible membrane, wherein the edges of the flexible membrane are connected to at least one of an inner surface of the container within the peripheral rim and the peripheral rim of the filter to form a fluid-tight seal between at least a part of the at least one inner surface of the container and the first tissue collection chamber; and at least one port, wherein at least one of the ports has an opening within the tissue collection chamber. a container; a filter having a peripheral rim portion, wherein the filter is positioned within the container such that the peripheral rim portion engages at least one inner surface of the container to define a first tissue collection chamber and a second filtrate collection chamber; a flexible membrane, wherein the edges of the flexible membrane are connected to at least one of an inner surface of the container within the peripheral rim and the peripheral rim of the filter to form a fluid-tight seal between at least a part of the at least one inner surface of the container and the first tissue collection chamber; and at least one port, wherein at least one of the ports has an opening within the tissue collection chamber.
A method for decomposing struvite, comprising the steps of: - dissolving (S10) a feed material comprising struvite in HCl forming an acid solution ; - removing (S20) phosphorus from said acid solution , forming a phosphorus-depleted solution ; - forming (S70) a neutralized solution by adding a base to said phosphorus-depleted solution ; and - forming a chloride salt solution from said neutralized solution . - dissolving (S10) a feed material comprising struvite in HCl forming an acid solution ; - removing (S20) phosphorus from said acid solution , forming a phosphorus-depleted solution ; - forming (S70) a neutralized solution by adding a base to said phosphorus-depleted solution ; and - forming a chloride salt solution from said neutralized solution .
A network for providing air-to-ground, ATG, wireless communication in various cells , comprising: an in-flight aircraft including an antenna assembly ; a plurality of ATG base stations , each of which defines a corresponding radiation pattern, wherein the base stations are spaced apart from each other to define at least partially overlapping coverage areas to communicate with the antenna assembly in an ATG communication layer defined between a first altitude and a second altitude , and wherein the ATG base stations are aligned front to back along a first direction such that the corresponding radiation patterns are also aligned to define the at least partially overlapping coverage areas; and a plurality of terrestrial base stations configured to communicate primarily in a ground communication layer below the first altitude; wherein the terrestrial base stations and the ATG base stations are each configured to communicate using the same radio frequency, RF, spectrum in the ground communication layer and ATG communication layer, respectively, and wherein a serving ATG base station in communication with the in-flight aircraft is geographically located outside a coverage area of each of the terrestrial base stations in a portion of the ground communication layer above which the in-flight aircraft is located. an in-flight aircraft including an antenna assembly ; a plurality of ATG base stations , each of which defines a corresponding radiation pattern, wherein the base stations are spaced apart from each other to define at least partially overlapping coverage areas to communicate with the antenna assembly in an ATG communication layer defined between a first altitude and a second altitude , and wherein the ATG base stations are aligned front to back along a first direction such that the corresponding radiation patterns are also aligned to define the at least partially overlapping coverage areas; and a plurality of terrestrial base stations configured to communicate primarily in a ground communication layer below the first altitude; wherein the terrestrial base stations and the ATG base stations are each configured to communicate using the same radio frequency, RF, spectrum in the ground communication layer and ATG communication layer, respectively, and wherein a serving ATG base station in communication with the in-flight aircraft is geographically located outside a coverage area of each of the terrestrial base stations in a portion of the ground communication layer above which the in-flight aircraft is located.
A chair comprising: - a base structure , - a seat carried by the base structure , and - a backrest movable relative to the seat between a rest position and a rearward inclined position, wherein the backrest has a connecting portion having a front surface and a rear surface , wherein the seat has first and second guide surfaces which guide, respectively, the front surface and the rear surface of said connecting portion of the backrest , - a movable element articulated to a lower edge of the connecting portion of the backrest , wherein said movable element is connected to the seat and is movable with respect to the seat along a longitudinal axis (L) between a rearward position and a forward position corresponding, respectively, to the rest position and to the rearward inclined position of the backrest , characterized in that the movable element and the seat have respective stops , which cooperate with each other to define stroke-end positions of the backrest in the rest position and in the maximum rearward tilt position. - a base structure , - a seat carried by the base structure , and - a backrest movable relative to the seat between a rest position and a rearward inclined position, wherein the backrest has a connecting portion having a front surface and a rear surface , wherein the seat has first and second guide surfaces which guide, respectively, the front surface and the rear surface of said connecting portion of the backrest , - a movable element articulated to a lower edge of the connecting portion of the backrest , wherein said movable element is connected to the seat and is movable with respect to the seat along a longitudinal axis (L) between a rearward position and a forward position corresponding, respectively, to the rest position and to the rearward inclined position of the backrest , characterized in that the movable element and the seat have respective stops , which cooperate with each other to define stroke-end positions of the backrest in the rest position and in the maximum rearward tilt position.
Print head, comprising a capillary that adjoins at least one elastic element around an axis of symmetry for a fluid to be printed onto a substrate with a nozzle opening , which opens into a pre-chamber , wherein a) the pre-chamber has an outlet opening , which is flush with the nozzle opening of the capillary in its axial alignment to the axis of symmetry , and at least one inlet opening for a guiding gas , b) the at least one elastic element forms a guide for the capillary only in its axial orientation, and c) feeding means provided for the fluid that is to be printed into the capillary, characterised in that d) a mechanical vibration system comprising the at least one elastic element and the capillary with the fluid contained in it, and e) a piezo actuator with a mechanical interaction of force with the vibration system. a) the pre-chamber has an outlet opening , which is flush with the nozzle opening of the capillary in its axial alignment to the axis of symmetry , and at least one inlet opening for a guiding gas , b) the at least one elastic element forms a guide for the capillary only in its axial orientation, and c) feeding means provided for the fluid that is to be printed into the capillary, characterised in that d) a mechanical vibration system comprising the at least one elastic element and the capillary with the fluid contained in it, and e) a piezo actuator with a mechanical interaction of force with the vibration system.
A method for requesting uplink resources by a user equipment in a communication system, wherein a DRX, Discontinued Reception, function is running at the user equipment, the method comprising the following steps performed at the user equipment: receiving configuration information from a radio base station on how to delay triggering of a scheduling request, the configuration information including one out of a plurality of codepoints where at least one of the plurality of codepoints indicates a flexible delay according to which the triggering of the scheduling request shall be delayed such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of an OnDuration period of a DRX cycle according to a DRX function, wherein the remaining codepoints indicate a fixed delay time for delaying the triggering of the scheduling request, triggering the transmission of the scheduling request for requesting uplink resources to the radio base station upon triggering of a buffer status report in the user equipment, in case the received codepoint indicates the flexible delay, delaying the triggering of the scheduling request such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of the OnDuration period of the DRX cycle, in case the received codepoint indicates the fixed delay time, delaying the triggering of the scheduling request for the indicated fixed delay time, transmitting the triggered scheduling request to the radio base station in the next possible scheduling request transmission occasion after the triggering of the scheduling request is delayed. receiving configuration information from a radio base station on how to delay triggering of a scheduling request, the configuration information including one out of a plurality of codepoints where at least one of the plurality of codepoints indicates a flexible delay according to which the triggering of the scheduling request shall be delayed such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of an OnDuration period of a DRX cycle according to a DRX function, wherein the remaining codepoints indicate a fixed delay time for delaying the triggering of the scheduling request, triggering the transmission of the scheduling request for requesting uplink resources to the radio base station upon triggering of a buffer status report in the user equipment, in case the received codepoint indicates the flexible delay, delaying the triggering of the scheduling request such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of the OnDuration period of the DRX cycle, in case the received codepoint indicates the fixed delay time, delaying the triggering of the scheduling request for the indicated fixed delay time, transmitting the triggered scheduling request to the radio base station in the next possible scheduling request transmission occasion after the triggering of the scheduling request is delayed.
Electric drive device of a movable vehicle part, having an electric motor and a planetary gearbox in a housing , wherein the drive input of the electric motor is introduced into the sun gear of the planetary gearbox , wherein the first output shaft is connected to a first element of the planetary gearbox, characterized in that a second output shaft by way of a second element of the planetary gearbox is disposed so as to be able to be shifted in relation to the first output shaft and so as to be concentric with the first output shaft , wherein the first output shaft is connected to a planet carrier , and the second output shaft is connected to a ring gear , and the planet carrier and the ring gear each have means which serve for blocking the planet carrier or the ring gear on the housing .