mhurhangee/patent-ind-claim-en huggingface dataset:
A turbine, comprising a stationary turbine spindle , a shaft for flowing a liquid or gaseous medium into a through-flow region located in the interior of the turbine, and a blading of a stationary guide vane and an impeller, said blading being arranged in the through-flow region, wherein the stationary guide vane comprises a support structure arranged within a hub encompassing the turbine spindle and a blading radially outwardly adjoining the support structure and extending into the through-flow region of the turbine, which is set up to guide the medium flowing in the through-flow region onto the blading of the impeller, and the impeller comprising a supporting structure encompassing the turbine spindle in an annular manner and is mounted rotatably about an axis of rotation which is essentially parallel to the through-flow direction of the medium, and comprising first and second means for generating a current flow, said means are implemented as a plurality of electrically conductive coil bodies as well as a plurality of magnets and which are each in electrical interaction with one another during rotational movement of the impeller about its axis of rotation , characterized in that the first means for generating a current flow are mounted on the support structure of the blading of the stationary guide vane and the second means for generating a current flow are mounted on the support structure of the impeller at the same radial distance from the axis of rotation in each case, and the support structure of the rotating impeller is rotatably supported by means of antifriction bearings against the turbine spindle or against the support structure of the blading of the stationary guide vane. and comprising first and second means for generating a current flow, said means are implemented as a plurality of electrically conductive coil bodies as well as a plurality of magnets and which are each in electrical interaction with one another during rotational movement of the impeller about its axis of rotation , characterized in that the first means for generating a current flow are mounted on the support structure of the blading of the stationary guide vane and the second means for generating a current flow are mounted on the support structure of the impeller at the same radial distance from the axis of rotation in each case, and the support structure of the rotating impeller is rotatably supported by means of antifriction bearings against the turbine spindle or against the support structure of the blading of the stationary guide vane.
A system for assigning a unique number to a cell module controller, the system comprising: N cell module controllers (111... 11N),CMCs, connected to one or more battery modules, respectively, and configured to store assigned unique numbers, N being an integer equal to 2 or more; N resistor units (121... 12N), each connected to one CMC so that each CMC is connected to one resistor unit; and a main battery management system ,BMS, configured to apply unique number assignment signals to the N resistor units, , and wherein each CMC includes a control unit (111a...11Na) configured to receive and store the unique number assignment signal from the corresponding resistor unit, a communication unit (111b―11Nb) configured to perform wired/wireless communication with the main BMS and transmit state information of the battery module acquired from the corresponding CMCs and the voltage values of the unique number assignment signals stored in the control unit; the main BMS being configured to assign the unique numbers to the N CMCs based on the voltage values of the unique number assignment signals stored in the control units of the CMCs, and each resistor unit includes a first resistor (121a... 12Na) configured to reduce the voltage values of the unique number assignment signal by a specific value so as to make the voltage values of the unique number assignment signals different to one another, and a second resistor (121b... 12Nb) configured to reduce the voltage values of the unique number assignment signal, which is reduced by the specific value to magnitudes allowable by the corresponding control unit. N cell module controllers (111... 11N),CMCs, connected to one or more battery modules, respectively, and configured to store assigned unique numbers, N being an integer equal to 2 or more; N resistor units (121... 12N), each connected to one CMC so that each CMC is connected to one resistor unit; and a main battery management system ,BMS, configured to apply unique number assignment signals to the N resistor units, , and wherein each CMC includes a control unit (111a...11Na) configured to receive and store the unique number assignment signal from the corresponding resistor unit, a communication unit (111b―11Nb) configured to perform wired/wireless communication with the main BMS and transmit state information of the battery module acquired from the corresponding CMCs and the voltage values of the unique number assignment signals stored in the control unit; the main BMS being configured to assign the unique numbers to the N CMCs based on the voltage values of the unique number assignment signals stored in the control units of the CMCs, and each resistor unit includes a first resistor (121a... 12Na) configured to reduce the voltage values of the unique number assignment signal by a specific value so as to make the voltage values of the unique number assignment signals different to one another, and a second resistor (121b... 12Nb) configured to reduce the voltage values of the unique number assignment signal, which is reduced by the specific value to magnitudes allowable by the corresponding control unit.
A filling process for superabsorbent polymer particles, wherein the superabsorbent polymer particles are discharged out of a silo into n bulk container, n is an integer, the sum of the filled volumes of the n bulk container correspondents to more than 80% of the effective volume of the silo and the filling level of the silo during the total time of filling of the n bulk container is not less than 20%, wherein the filling level of the silo is the filled volume in the silo divided by the effective volume of the silo, and wherein the effective volume is the maximum volume of the silo that can be used for storing superabsorbent polymer particles.
A lane line processing method, comprising: performing (S11) a binarization processing on a first image to obtain a binary image, wherein the performing a binarization processing on a first image comprises: obtaining, by a deep learning model, confidences of pixel points in the first image, and classifying the pixel points as lane line points and non-lane line points using a confidence threshold; performing (S 12) a connected domain analysis on the binary image to obtain at least one connected domain in the binary image, the connected domain comprising a plurality of adjacent lane line points; determining (S13) lane line points in a group corresponding to a lane line, based on the connected domain; and obtaining (S14) representation information of the lane line corresponding to the group, by using the lane line points in the group, wherein the representation information comprises at least one of a curve equation, a start point, or an end point of the lane line. performing (S11) a binarization processing on a first image to obtain a binary image, wherein the performing a binarization processing on a first image comprises: obtaining, by a deep learning model, confidences of pixel points in the first image, and classifying the pixel points as lane line points and non-lane line points using a confidence threshold; performing (S 12) a connected domain analysis on the binary image to obtain at least one connected domain in the binary image, the connected domain comprising a plurality of adjacent lane line points; determining (S13) lane line points in a group corresponding to a lane line, based on the connected domain; and obtaining (S14) representation information of the lane line corresponding to the group, by using the lane line points in the group, wherein the representation information comprises at least one of a curve equation, a start point, or an end point of the lane line.
Closure with a sealing element for a fluid-filled container (B) with at least one safety mechanism, which is configured to be visibly irreversibly altered when the closure is opened for the first time, wherein the safety mechanism comprises at least one visible safety element , which is visibly irreversibly altered by subjecting the closure with respect to the container (B) to a force having at least one force component along an axis (A) normal to an opening plane of an opening (O) of the container (B) closed by the closure , wherein the closure has an internal thread complementary to an external thread of the container (B) or an external thread complementary to an internal thread of the container (B), wherein the closure has a second element and a first element for receiving the second element , a. wherein the first element and the second element are displaceable relative to each other from a first position to a second position, i. wherein in the first position the sealing element is intact and ii. wherein in the second position the sealing element is pierced by the second element , and characterized in that b. the safety mechanism comprises at least one control element by means of which it is visible whether the second element is still in the initial position, wherein the at least one control element is irreversibly altered by displacing the second element against the first element , and wherein the closure has a catch which is configured to allow the closure to be screwed onto the container (B) and to prevent the closure from being unscrewed from the container (B). a. wherein the first element and the second element are displaceable relative to each other from a first position to a second position, i. wherein in the first position the sealing element is intact and ii. wherein in the second position the sealing element is pierced by the second element , and characterized in that i. wherein in the first position the sealing element is intact and ii. wherein in the second position the sealing element is pierced by the second element , and characterized in that b. the safety mechanism comprises at least one control element by means of which it is visible whether the second element is still in the initial position, wherein the at least one control element is irreversibly altered by displacing the second element against the first element , and wherein the closure has a catch which is configured to allow the closure to be screwed onto the container (B) and to prevent the closure from being unscrewed from the container (B).
A method of controlling wireless transmissions in a wireless communication system, the method comprising: an access point (10; 700; 1000) of the wireless communication system reserving a transmission opportunity, TXOP, on a wireless channel; the access point (10; 700; 1000) determining, for a wireless station (11; 900; 1100) associated with the access point (10; 700; 1000), a first set of one or more transmit parameters to be applied in a scheduled first wireless transmission from the wireless station (11; 900; 1100) to the access point (10; 700; 1000); the access point (10; 700; 1000) sending a message (405; 506) for triggering the first wireless transmission by the wireless station (11; 900; 1100), the message (405; 506) indicating the first set of one or more transmit parameters, and further indicating a second set of one or more transmit parameters and that at least one additional wireless station (11; 900; 1100) receiving the message (405; 506) is allowed to perform a second wireless transmission in the TXOP for a duration smaller than the first wireless transmission and using the indicated second set of one or more transmit parameters and radio resources which are at least in part overlapping with radio resources allocated to the first wireless transmission, wherein the second wireless transmission does not require scheduling. an access point (10; 700; 1000) of the wireless communication system reserving a transmission opportunity, TXOP, on a wireless channel; the access point (10; 700; 1000) determining, for a wireless station (11; 900; 1100) associated with the access point (10; 700; 1000), a first set of one or more transmit parameters to be applied in a scheduled first wireless transmission from the wireless station (11; 900; 1100) to the access point (10; 700; 1000); the access point (10; 700; 1000) sending a message (405; 506) for triggering the first wireless transmission by the wireless station (11; 900; 1100), the message (405; 506) indicating the first set of one or more transmit parameters, and further indicating a second set of one or more transmit parameters and that at least one additional wireless station (11; 900; 1100) receiving the message (405; 506) is allowed to perform a second wireless transmission in the TXOP for a duration smaller than the first wireless transmission and using the indicated second set of one or more transmit parameters and radio resources which are at least in part overlapping with radio resources allocated to the first wireless transmission, wherein the second wireless transmission does not require scheduling.
A vinyl chloride-based polymer comprising 0.5 parts by weight to 2.0 parts by weight of a saponified emulsifier based on 100 parts by weight of a polymer, as measured according to the experimental section, wherein the saponified emulsifier is a saponified fatty acid having 12 to 18 carbon atoms; and the acidity ((pH) as disclosed in the description)) of the saponified emulsifier is 10 to 12.
System for monitoring a latched/non-latched state of a hook-keeper unit of an aeronautical structure , wherein the hook-keeper unit comprises a hook and a keeper , the system comprising: ▪ the hook-keeper unit configured to be in a latched state (B) and in a non-latched state (A), ▪ a mechanical warning element configured to be in an exposed state (D) and in an unexposed state (C), and ▪ a connecting mechanism comprising a first end (5.1) coupled to the hook-keeper unit , and a second end (5.2) coupled to the mechanical warning element , the connecting mechanism being configured to automatically transmit the latched/non-latched state of the hook-keeper unit to the mechanical warning element , wherein the hook-keeper unit and the mechanical warning element are coupled between them by the connecting mechanism in an automatic bijective relationship, so that: i. when the hook-keeper unit is in the latched state (B), the mechanical warning element automatically is in the unexposed state (C), and ii. when the hook-keeper unit is in the non-latched state (A), the mechanical warning element automatically is in the exposed state (D); wherein the latched state (B) corresponds to the state in which the hook is engaged with the keeper, and the non-latched state (A) corresponds to the state in which the hook is not engaged with the keeper; and the connecting mechanism comprises at the first end (5.1) a tilting piece (5.3), the tilting piece (5.3) comprising two portions (5.3.1, 5.3.3) fixedly joined by a tilting axis (5.3.2), wherein a first portion (5.3.1) is rotatably joined to the hook-keeper unit and the second portion (5.3.3) is connected to an substantially inextensible coupling element (5.4) of the connecting mechanism . ▪ the hook-keeper unit configured to be in a latched state (B) and in a non-latched state (A), ▪ a mechanical warning element configured to be in an exposed state (D) and in an unexposed state (C), and ▪ a connecting mechanism comprising a first end (5.1) coupled to the hook-keeper unit , and a second end (5.2) coupled to the mechanical warning element , the connecting mechanism being configured to automatically transmit the latched/non-latched state of the hook-keeper unit to the mechanical warning element , i. when the hook-keeper unit is in the latched state (B), the mechanical warning element automatically is in the unexposed state (C), and ii. when the hook-keeper unit is in the non-latched state (A), the mechanical warning element automatically is in the exposed state (D); the latched state (B) corresponds to the state in which the hook is engaged with the keeper, and the non-latched state (A) corresponds to the state in which the hook is not engaged with the keeper; and the connecting mechanism comprises at the first end (5.1) a tilting piece (5.3), the tilting piece (5.3) comprising two portions (5.3.1, 5.3.3) fixedly joined by a tilting axis (5.3.2), wherein a first portion (5.3.1) is rotatably joined to the hook-keeper unit and the second portion (5.3.3) is connected to an substantially inextensible coupling element (5.4) of the connecting mechanism .
A protection system for a power distribution system with one or more zones comprising: at least one power-switching device connected to a power or current sensing device for sensing a power or current in a zone of the one or more zones of the power distribution system , wherein each zone defines a portion of the power distribution system , wherein the power distribution system includes said power-switching device, and said power-switching device is connected to a communications device , said power-switching device being communicatively coupled to at least one processing device , said at least one processing device being adapted to execute a plurality of overcurrent protection functions for said zone based on information of power conditions within said zone and predetermined protective requirements of said power conditions within said zone, characterized in that said communications device is communicatively coupled to a second communications device to communicate a presence or absence of a fault condition sensed by a secondary power-switching device that is downstream to the at least one power-switching device, and wherein said power-switching device is configured to determine whether to trip after a first time period has elapsed in said presence of said fault condition and to determine whether to trip after a second time period, that is shorter than the first time period, has elapsed in said absence of said fault condition. at least one power-switching device connected to a power or current sensing device for sensing a power or current in a zone of the one or more zones of the power distribution system , wherein each zone defines a portion of the power distribution system , wherein the power distribution system includes said power-switching device, and said power-switching device is connected to a communications device , said power-switching device being communicatively coupled to at least one processing device , said at least one processing device being adapted to execute a plurality of overcurrent protection functions for said zone based on information of power conditions within said zone and predetermined protective requirements of said power conditions within said zone, characterized in that said communications device is communicatively coupled to a second communications device to communicate a presence or absence of a fault condition sensed by a secondary power-switching device that is downstream to the at least one power-switching device, and wherein said power-switching device is configured to determine whether to trip after a first time period has elapsed in said presence of said fault condition and to determine whether to trip after a second time period, that is shorter than the first time period, has elapsed in said absence of said fault condition.
A composition containing an immunogenic cell preparation of killed Leptospira bacteria in an ethylenediaminetetraacetic acid solution, characterised in that the solution comprises 5 to 50 mmols of ethylenediaminetetraacetic acid per litre.
A method for measuring an implant-implant situation , that is to say the relative position and orientation of the implants with respect to one another, for planning an implant-borne tooth replacement part , characterised in that a scanning template is used for this purpose, wherein the scanning template has recesses for the individual implants and first markings , wherein the scanning template is firmly arranged relative to the placed implants and the first markings on the scanning template are measured using a measurement method.
Method carried out by an aircraft system for ascertaining a state of an unmanned aircraft, comprising the steps carried out by at least one ground station : - repeatedly estimating a current position of the aircraft on the basis of at least one previously known position and at least one flight parameter, and storing the respective estimated current position in a database, - receiving externally acquired state data comprising a position at a determination time, - ascertaining an estimate of a position of the aircraft at the determination time on the basis of the stored positions in the database, - comparing the estimated position of the aircraft at the determination time and the acquired position at the determination time and ascertaining a deviation of the estimated position from the acquired position, and - correcting the stored positions in the database that come after the determination time on the basis of the deviation. - repeatedly estimating a current position of the aircraft on the basis of at least one previously known position and at least one flight parameter, and storing the respective estimated current position in a database, - receiving externally acquired state data comprising a position at a determination time, - ascertaining an estimate of a position of the aircraft at the determination time on the basis of the stored positions in the database, - comparing the estimated position of the aircraft at the determination time and the acquired position at the determination time and ascertaining a deviation of the estimated position from the acquired position, and - correcting the stored positions in the database that come after the determination time on the basis of the deviation.
A method for analyzing the components of a biological mixture, the method comprising: (i) providing a sample comprising one or more of intact antibodies or fragments thereof, antibody drug conjugates or subunits thereof, or intact proteins; (ii) exposing the sample to a first dimension comprising a trap; (iii) exposing the sample to a second dimension comprising a stationary phase; (iv) separating the components of the sample; (v) establishing a mass to charge ratio of each of the components in the sample; and (vi) detecting each of the components in the sample prior to exposing the sample to the second dimension, wherein the method further comprises: (a) adding a supercharging reagent to the sample after exposing the sample to the second dimension; or (b) adding a decharging reagent to the sample after exposing the sample to the second dimension. (i) providing a sample comprising one or more of intact antibodies or fragments thereof, antibody drug conjugates or subunits thereof, or intact proteins; (ii) exposing the sample to a first dimension comprising a trap; (iii) exposing the sample to a second dimension comprising a stationary phase; (iv) separating the components of the sample; (v) establishing a mass to charge ratio of each of the components in the sample; and (vi) detecting each of the components in the sample prior to exposing the sample to the second dimension, (a) adding a supercharging reagent to the sample after exposing the sample to the second dimension; or (b) adding a decharging reagent to the sample after exposing the sample to the second dimension.