mhurhangee/ep-ind-claims huggingface dataset:
Tools for inserting turns in the grooves of laminated cores for fabrication of electric motor stators, which comprises a plurality of support lamellas disposed on a base ring over which turn coils are positioned, characterized in that said tool further comprises extreme support lamellas, said extreme support lamellas being the set of support lamellas more distant from one another when the turn coils are accommodated, and being disposed on the base ring, so that the turn coils are disposed on said extreme support lamellas; said extreme support lamellas being provided with a supplementary lamella disposed on the external surface of said support lamellas (11, 11'), wherein said supplementary lamellas are disposed between two extreme grooves of laminated core, such that the turn coils and are sufficiently spaced apart from one another, and the separation generated by the supplementary lamella forms a physical barrier capable of preventing eventual intertwined segments of the turn coil from being conducted to and pressed in the wrong groove.
Process for surfacing a surface of a spectacle glass, comprising a step of determining a fixed rotation speed (Vrot) of said spectacle glass from geometric characteristics of said surface, characterized in that the step of determining the rotation speed (Vrot) comprises the following steps: - generating, from geometric characteristics of said surface, a file of altitude geometric values (Zj) of said surface, which file is centered on an altitude geometric value (Z 0) at a preset reference point; - determining a value representing the largest difference (MaxHk) between altitude geometric values (Zj) on said surface; and - deducing the rotation speed (Vrot) from said value of the largest difference (MaxHk) between altitude geometric values (Zj) on said surface, and from a cylinder geometric value (Tore VL) at a preset far-vision checking point. - generating, from geometric characteristics of said surface, a file of altitude geometric values (Zj) of said surface, which file is centered on an altitude geometric value (Z 0) at a preset reference point; - determining a value representing the largest difference (MaxHk) between altitude geometric values (Zj) on said surface; and - deducing the rotation speed (Vrot) from said value of the largest difference (MaxHk) between altitude geometric values (Zj) on said surface, and from a cylinder geometric value (Tore VL) at a preset far-vision checking point.
Valve for selectively closing and selectively opening a gas cartridge for a soda machine, wherein the valve is configured to hold a gas in the gas cartridge when closed and to provide a fluid connection to the gas cartridge when open, wherein the valve comprises a valve housing having a cartridge-connection opening, said cartridge-connection opening being oriented along a longitudinal axis of the valve, so that gas is able to flow into the gas cartridge, and out of the gas cartridge, in the direction of the longitudinal axis, wherein the valve housing comprises at least one outlet opening which is arranged externally and arranged along a direction parallel to the longitudinal axis in such a way that gas is able to flow from the valve in the direction parallel to the longitudinal axis, characterized in that the at least one outlet opening is arranged spaced apart from the longitudinal axis. wherein the valve is configured to hold a gas in the gas cartridge when closed and to provide a fluid connection to the gas cartridge when open, wherein the valve comprises a valve housing having a cartridge-connection opening, said cartridge-connection opening being oriented along a longitudinal axis of the valve, so that gas is able to flow into the gas cartridge, and out of the gas cartridge, in the direction of the longitudinal axis, wherein the valve housing comprises at least one outlet opening which is arranged externally and arranged along a direction parallel to the longitudinal axis in such a way that gas is able to flow from the valve in the direction parallel to the longitudinal axis, characterized in that the at least one outlet opening is arranged spaced apart from the longitudinal axis.
Heat transfer device for controlling the temperature of energy storage elements and/or a power electronics unit for example of an energy storage unit with a heat transfer surface which is applied to the energy storage unit characterised in that - the heat transfer surface is partially coated with a layer having a heat-conducting material, and - the heat transfer surface has contact areas which are provided with the heat-conducting layer and has insulating areas which are not provided with the heat-conducting layer, characterised in that the degree of coverage of the heat-conducting layer varies to compensate at least for a hot spot and/or a cold spot of the heat transfer device and/or the energy storage elements. - the heat transfer surface is partially coated with a layer having a heat-conducting material, and - the heat transfer surface has contact areas which are provided with the heat-conducting layer and has insulating areas which are not provided with the heat-conducting layer,
A system for monitoring at least one process condition of a continuous thermal treatment of a flowing heterogeneous fluid stream processed in a heat exchanger, said system comprising at least one circuit identifiable by radio frequency signal, at least one transceiver capable of communication with said circuit, and at least one particle embedded with said circuit, said particle being one of a plurality of constituent particles flowing within said heterogeneous fluid stream, characterized in that: said circuit is an application specific integrated circuit having an integrated temperature sensor for measuring temperatures at different locations within said heterogeneous fluid stream; said circuit is coupled to an antenna for sending a radio frequency temperature signal to said at least one transceiver; and, said at least one process condition is temperature. said circuit is an application specific integrated circuit having an integrated temperature sensor for measuring temperatures at different locations within said heterogeneous fluid stream; said circuit is coupled to an antenna for sending a radio frequency temperature signal to said at least one transceiver; and, said at least one process condition is temperature.
A turbine exhaust structure including a casing formed in an annular shape to constitute a combustion gas passage, in which an exhaust diffuser formed in an annular shape to constitute a flue gas passage is connected to the casing, wherein a pressure loss body (61;64;65;71) is provided in the exhaust diffuser, characterised in that the pressure loss body (61;64;65;71) is designed so that the pressure loss in at least one of radial outer side or inner side of the exhaust diffuser is smaller than the pressure loss in a radial middle portion of the exhaust diffuser.
A method performed at a management device of managing user identity authentication data, comprising: authenticating a query request from a query requester for original identity data of a user to be queried, the query request including at least a key for encrypting the original identity data to be queried; in response to the query request being successfully authenticated, sending authorization information for the query request to the query requester; determining, based on mapping information associated with the original identity data stored by one or more of a plurality of authentication devices, at least one of the plurality of authentication devices to query for the original identity data; and in response to receiving signature information corresponding to the query request from the user to be queried, transmitting the signature information and the key to the at least one authentication device, wherein the signature information indicates the user to be queried approves the request and was generated by a terminal device of the user to be queried based on the authorization information, the authorization information having been received at the terminal device of the user to be queried from the query requester. authenticating a query request from a query requester for original identity data of a user to be queried, the query request including at least a key for encrypting the original identity data to be queried; in response to the query request being successfully authenticated, sending authorization information for the query request to the query requester; determining, based on mapping information associated with the original identity data stored by one or more of a plurality of authentication devices, at least one of the plurality of authentication devices to query for the original identity data; and in response to receiving signature information corresponding to the query request from the user to be queried, transmitting the signature information and the key to the at least one authentication device, wherein the signature information indicates the user to be queried approves the request and was generated by a terminal device of the user to be queried based on the authorization information, the authorization information having been received at the terminal device of the user to be queried from the query requester.
A method for small batch processing of usage requests, comprising: providing a service broker executing on one or more microprocessors; providing a plurality of servers, wherein each server includes customer data; providing a plurality of queues, wherein each server is associated with a different the method further comprising, at the service broker: queue; receiving a usage request from a network entity; determining an internal ID, Identification, associated with data requested by the usage request; determining on which particular server of the plurality of servers the data requested by the usage request is stored; enqueuing the usage request in a particular queue associated with the particular server; and upon a trigger event, sending all requests in the particular queue to the particular server in a batch; the method further comprising: when the particular server has processed each request in the batch, populating the batch with response data for each request, and returning the batch to the service broker. providing a service broker executing on one or more microprocessors; providing a plurality of servers, wherein each server includes customer data; providing a plurality of queues, wherein each server is associated with a different the method further comprising, at the service broker: queue; receiving a usage request from a network entity; determining an internal ID, Identification, associated with data requested by the usage request; determining on which particular server of the plurality of servers the data requested by the usage request is stored; enqueuing the usage request in a particular queue associated with the particular server; and upon a trigger event, sending all requests in the particular queue to the particular server in a batch; the method further comprising: when the particular server has processed each request in the batch, populating the batch with response data for each request, and returning the batch to the service broker. when the particular server has processed each request in the batch, populating the batch with response data for each request, and returning the batch to the service broker.
A method of manufacturing an electrode assembly, the method comprising: assembling an electrode stack including a plurality of electrodes (11, 12) stacked along a stacking axis with a respective separator portion positioned between each of the electrodes (11, 12); after assembling the electrode stack, performing a primary heat press operation on the electrode stack, the primary heat press operation comprising engaging the electrode stack with a gripper to secure a position of the electrode stack and then, while the gripper is engaged with the electrode stack, applying heat and pressure to the electrode stack; and after the primary heat press operation, performing a secondary heat press operation on the electrode stack, the secondary heat press operation comprising disengaging the gripper from the electrode stack and then applying heat and pressure to the electrode stack, wherein the secondary heat press operation includes applying heat and pressure to the electrode stack for a time period from 5 seconds to 60 seconds under a temperature condition from 50°C to 90°C and under a pressure condition from 1 Mpa to 6 Mpa. assembling an electrode stack including a plurality of electrodes (11, 12) stacked along a stacking axis with a respective separator portion positioned between each of the electrodes (11, 12); after assembling the electrode stack, performing a primary heat press operation on the electrode stack, the primary heat press operation comprising engaging the electrode stack with a gripper to secure a position of the electrode stack and then, while the gripper is engaged with the electrode stack, applying heat and pressure to the electrode stack; and after the primary heat press operation, performing a secondary heat press operation on the electrode stack, the secondary heat press operation comprising disengaging the gripper from the electrode stack and then applying heat and pressure to the electrode stack, wherein the secondary heat press operation includes applying heat and pressure to the electrode stack for a time period from 5 seconds to 60 seconds under a temperature condition from 50°C to 90°C and under a pressure condition from 1 Mpa to 6 Mpa.
A method for continuous open-width washing of a fabric, comprising the steps of: - controlling continuous introduction of the fabric into a first tank of a washing machine containing washing liquid wherein, as the fabric is being introduced into the first tank it is constantly maintained in open-width, - controlling alternate pneumatic transfer of the fabric from the first tank to a second tank of the washing machine and vice versa, said alternate transfer occurring a plurality of times with the fabric still maintained in open-width, - controlling continuous removal of fabric from the second tank containing washing liquid wherein, as the fabric is being removed from the second tank it is constantly maintained in open-width, wherein the pneumatic transfer from the first tank to the second tank and vice versa occurs using at least one pneumatic transfer device of the washing machine that imparts a transfer speed (V T) to the fabric from the first tank to the second tank and vice versa that is higher than the introduction speed (V L) with which the fabric is introduced into the first tank and the removal speed (V L) with which the fabric is removed from the second tank, characterised in that the method includes a step of wringing out the fabric that comes out of the pneumatic transfer device before accumulation in the first or the second tank, in that the introduction speed and the removal speed are equal and constant and define the line speed (V L) of the washing machine, and in that the transfer speed (V T) is at least 5 times greater than the line speed (V L). - controlling continuous introduction of the fabric into a first tank of a washing machine containing washing liquid wherein, as the fabric is being introduced into the first tank it is constantly maintained in open-width, - controlling alternate pneumatic transfer of the fabric from the first tank to a second tank of the washing machine and vice versa, said alternate transfer occurring a plurality of times with the fabric still maintained in open-width, - controlling continuous removal of fabric from the second tank containing washing liquid wherein, as the fabric is being removed from the second tank it is constantly maintained in open-width, wherein the pneumatic transfer from the first tank to the second tank and vice versa occurs using at least one pneumatic transfer device of the washing machine that imparts a transfer speed (V T) to the fabric from the first tank to the second tank and vice versa that is higher than the introduction speed (V L) with which the fabric is introduced into the first tank and the removal speed (V L) with which the fabric is removed from the second tank, characterised in that the method includes a step of wringing out the fabric that comes out of the pneumatic transfer device before accumulation in the first or the second tank, in that the introduction speed and the removal speed are equal and constant and define the line speed (V L) of the washing machine, and in that the transfer speed (V T) is at least 5 times greater than the line speed (V L).
An anti-extrusion device (142,144), comprising: a garter spring; and a support assembly having a ring shaped body disposed in an entire circumference of an inner volume of the garter spring, wherein the ring shaped body expands with expansion of the garter spring while maintaining a continuous ring and the ring shaped body fills the entire inner volume of the garter spring when the ring shaped body is at a non-expanded position, wherein the ring shaped body comprises: a first ring having at least one first opening to allow an outer diameter of the first ring to expand; and a second ring having at least one second opening to allow an outer diameter of the second ring to expand, wherein the first and second rings are stacked together to form the ring shaped body, and the at least one first and second openings are positioned at different locations along the ring shaped body. a garter spring; and a support assembly having a ring shaped body disposed in an entire circumference of an inner volume of the garter spring, wherein the ring shaped body expands with expansion of the garter spring while maintaining a continuous ring and the ring shaped body fills the entire inner volume of the garter spring when the ring shaped body is at a non-expanded position, wherein the ring shaped body comprises: a first ring having at least one first opening to allow an outer diameter of the first ring to expand; and a second ring having at least one second opening to allow an outer diameter of the second ring to expand, a first ring having at least one first opening to allow an outer diameter of the first ring to expand; and a second ring having at least one second opening to allow an outer diameter of the second ring to expand, wherein the first and second rings are stacked together to form the ring shaped body, and the at least one first and second openings are positioned at different locations along the ring shaped body.
A method for converting a non-refueling airplane to an airplane suitable for constituting a refueling airplane, said non-refueling airplane having an original tail section and an original tail-strike pitch attitude, said method comprising steps of: providing said original tail section and a recess formed therein, both constituting a modified tail section; at least partially accommodating a refueling boom within the recess; and mounting the refueling boom to the modified tail section, thereby obtaining refueling airplane a tail-strike pitch attitude of which is equal to or greater than the original tail-strike pitch attitude of the non-refueling airplane; wherein the recess is formed with a flat bottom surface. providing said original tail section and a recess formed therein, both constituting a modified tail section; at least partially accommodating a refueling boom within the recess; and mounting the refueling boom to the modified tail section, thereby obtaining refueling airplane a tail-strike pitch attitude of which is equal to or greater than the original tail-strike pitch attitude of the non-refueling airplane; wherein the recess is formed with a flat bottom surface.
Method for automatic signalling an alert when a possible intrusion occurs in an industrial automation and control system, comprising: (a) determining a correlation of a first E 1 and second security event E 2 and storing the correlation in an event database, wherein the correlation includes a probability P E 1, E 2 that the first security event is directly followed by the second security event within a normalised time period, (b) identifying a candidate event as the first security event, based on event information of the candidate event, upon occurrence of the candidate event, (c) classifying the candidate event as anomalous when the probability P E 1, E 2 exceeds a predetermined threshold and no second security event follows the candidate event within the normalised time period, and (d) signalling the alert indicating the candidate event. (a) determining a correlation of a first E 1 and second security event E 2 and storing the correlation in an event database, wherein the correlation includes a probability P E 1, E 2 that the first security event is directly followed by the second security event within a normalised time period, (b) identifying a candidate event as the first security event, based on event information of the candidate event, upon occurrence of the candidate event, (c) classifying the candidate event as anomalous when the probability P E 1, E 2 exceeds a predetermined threshold and no second security event follows the candidate event within the normalised time period, and (d) signalling the alert indicating the candidate event.
A pre-coding method, applied to a transmitting end of Multiple-Input Multiple-Output (MIMO) system for a rank=1 or rank=2 channel matrix, wherein the transmitting end is configured with eight antennas, characterized by comprising: the transmitting end and a receiving end storing an identical information of a pre-coding codebook; the transmitting end finding out a codeword corresponding to an index of the codeword from the pre-coding codebook according to the index of the codeword fed back from the receiving end, and pre-coding a symbol block sent to the receiving end by using the codeword; wherein, at least eight codeword vectors or column vectors in at least eight codeword matrixes in the pre-coding codebook are obtained based on 8-dimensional vectors selected from the following 8-dimensional vector set: u 1 s n * u 1 T, u 1 − s n * u 1 T, u 2 s n * u 2 T, u 2 − s n * u 2 T u 3 s n * u 3 T, u 3 − s n * u 3 T, u 4 s n * u 4 T, u 4 − s n * u 4 T u 5 s n * u 5 T, u 5 − s n * u 5 T, u 6 s n * u 6 T, u 6 − s n * u 6 T u 7 s n * u 7 T, u 7 − s n * u 7 T, u 8 s n * u 8 T, u 8 s n * u 8 T wherein, u 1 = 1 1 1 1 T, u 2 = 1 j − 1 − j T, u 3 = 1 − 1 1 − 1 T, u 4 = 1 − j − 1 j T u 5 = 1 q 0 j q 1 T, u 6 = 1 q 1 − j − q 0 T, u 7 = 1 q 2 j q 3 T, u 8 = 1 q 3 − j q 2 T q 0 = 1 + j / 2; q 1 = − 1 + j / 2; q 2 = − 1 − j / 2; q 3 = 1 − j / 2; s ( n) is an element in vectors, n=1,2,3,4, and s = [ s s s s]=[1 j q 0 q 1]. the transmitting end and a receiving end storing an identical information of a pre-coding codebook; the transmitting end finding out a codeword corresponding to an index of the codeword from the pre-coding codebook according to the index of the codeword fed back from the receiving end, and pre-coding a symbol block sent to the receiving end by using the codeword; wherein, at least eight codeword vectors or column vectors in at least eight codeword matrixes in the pre-coding codebook are obtained based on 8-dimensional vectors selected from the following 8-dimensional vector set: u 1 s n * u 1 T, u 1 − s n * u 1 T, u 2 s n * u 2 T, u 2 − s n * u 2 T u 3 s n * u 3 T, u 3 − s n * u 3 T, u 4 s n * u 4 T, u 4 − s n * u 4 T u 5 s n * u 5 T, u 5 − s n * u 5 T, u 6 s n * u 6 T, u 6 − s n * u 6 T u 7 s n * u 7 T, u 7 − s n * u 7 T, u 8 s n * u 8 T, u 8 s n * u 8 T wherein, u 1 = 1 1 1 1 T, u 2 = 1 j − 1 − j T, u 3 = 1 − 1 1 − 1 T, u 4 = 1 − j − 1 j T u 5 = 1 q 0 j q 1 T, u 6 = 1 q 1 − j − q 0 T, u 7 = 1 q 2 j q 3 T, u 8 = 1 q 3 − j q 2 T q 0 = 1 + j / 2; q 1 = − 1 + j / 2; q 2 = − 1 − j / 2; q 3 = 1 − j / 2; s ( n) is an element in vectors, n=1,2,3,4, and s = [ s s s s]=[1 j q 0 q 1].