mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a pouch-shaped battery cell, the method comprising: (a) injecting an electrolytic solution into a pouch-shaped battery case, in which an electrode assembly is received; (b) placing the pouch-shaped battery cell in a jig configured to fix and press the pouch-shaped battery cell; and (c) charging and discharging the pouch-shaped battery cell in a state in which pressure is applied to the jig, wherein the electrode assembly is constituted by a negative electrode comprising a silicon-based negative electrode active material, and the step (c) is performed such that the pouch-shaped battery cell has a state of charge (SOC) of 50% to 100%. (a) injecting an electrolytic solution into a pouch-shaped battery case, in which an electrode assembly is received; (b) placing the pouch-shaped battery cell in a jig configured to fix and press the pouch-shaped battery cell; and (c) charging and discharging the pouch-shaped battery cell in a state in which pressure is applied to the jig, wherein the electrode assembly is constituted by a negative electrode comprising a silicon-based negative electrode active material, and the step (c) is performed such that the pouch-shaped battery cell has a state of charge (SOC) of 50% to 100%. wherein the electrode assembly is constituted by a negative electrode comprising a silicon-based negative electrode active material, and the step (c) is performed such that the pouch-shaped battery cell has a state of charge (SOC) of 50% to 100%.
A beam-forming method, comprising: determining (S101) location information of a plurality of UEs; and performing (S102) beam-forming according to the location information of the UEs; characterized in that , the method further comprises: clustering the plurality of UEs; scheduling UEs in a same cluster using a same weight of broadcast beam-forming; wherein the UEs in the same cluster have a same Angles of Arrival, AOA, distribution and a same Elevations of Arrival, EOA, distribution; and scheduling UEs in different clusters in a time-division mode using different weights of broadcast beam-forming at a preset periodicity; wherein the weights of broadcast beam-forming are for channels that are demodulated by using a common reference signal, CRS, wherein the CRS is a cell-level parameter, and are applied to all UEs in a coverage area of a cell. determining (S101) location information of a plurality of UEs; and performing (S102) beam-forming according to the location information of the UEs; characterized in that , the method further comprises: clustering the plurality of UEs; scheduling UEs in a same cluster using a same weight of broadcast beam-forming; clustering the plurality of UEs; scheduling UEs in a same cluster using a same weight of broadcast beam-forming; wherein the UEs in the same cluster have a same Angles of Arrival, AOA, distribution and a same Elevations of Arrival, EOA, distribution; and scheduling UEs in different clusters in a time-division mode using different weights of broadcast beam-forming at a preset periodicity; wherein the weights of broadcast beam-forming are for channels that are demodulated by using a common reference signal, CRS, wherein the CRS is a cell-level parameter, and are applied to all UEs in a coverage area of a cell.
Agrochemical oil dispersion comprising: a) from 30 to 85 % by weight (wt%) of a liphophilic phase b) from 0.01 to 10 wt% of at least one thickener, wherein said thickener is a N-acyl amino acid alkylamide of Formula I: wherein: • R 1 represents a linear or branched alkyl or alkenyl chain having from 1 to 30 carbon atoms • R 2 and R 3 each independently represent a linear or branched alkyl or alkenyl chain having from 1 to 20 carbon atoms • n represents 1 or 2 c) from 5 to 30 wt% of a nonionic surfactant, an anionic surfactant or a mixture thereof d) from 2 to 70 wt% of at least one agrochemical active ingredient dispersed in said lipophilic phase. a) from 30 to 85 % by weight (wt%) of a liphophilic phase b) from 0.01 to 10 wt% of at least one thickener, wherein said thickener is a N-acyl amino acid alkylamide of Formula I: wherein: • R 1 represents a linear or branched alkyl or alkenyl chain having from 1 to 30 carbon atoms • R 2 and R 3 each independently represent a linear or branched alkyl or alkenyl chain having from 1 to 20 carbon atoms • n represents 1 or 2 • R 1 represents a linear or branched alkyl or alkenyl chain having from 1 to 30 carbon atoms • R 2 and R 3 each independently represent a linear or branched alkyl or alkenyl chain having from 1 to 20 carbon atoms • n represents 1 or 2 c) from 5 to 30 wt% of a nonionic surfactant, an anionic surfactant or a mixture thereof d) from 2 to 70 wt% of at least one agrochemical active ingredient dispersed in said lipophilic phase.
A patient drape device , comprising: a flexible substrate configured to cover a portion of a patient ; and a plurality of indicator lights (230 a -230 c ) attached to the flexible substrate along a path of a medical device , wherein each of the indicator lights actuates to a lit condition in response to a magnetic field or radiofrequency, emanating from within the patient to indicate the medical device's internal location. a flexible substrate configured to cover a portion of a patient ; and a plurality of indicator lights (230 a -230 c ) attached to the flexible substrate along a path of a medical device , wherein each of the indicator lights actuates to a lit condition in response to a magnetic field or radiofrequency, emanating from within the patient to indicate the medical device's internal location.
Toothed disk for fastening a media line having a circular insertion opening , wherein at a periphery of the insertion opening , next to each other arranged elastic holding teeth , separated from each other by shear cutted slots , form an inner holding section , wherein in the axial direction, the holding teeth extend at an angle to a longitudinal axis extending perpendicularly to the circle plane through a center point (M) of the insertion opening in such a way that the holding teeth include an obtuse angle (α) together with a mounting section , wherein each holding tooth is connected to the outer mounting section by means of at least one connecting web , wherein punch-outs are formed between the connecting webs , and wherein the mounting section is arranged on a peripheral circle around the insertion opening and lies in a mounting plane which extends parallel to the circle plane spanned by the insertion opening , wherein each holding tooth of the inner holding section is connected to the mounting section by at least two connecting webs characterized in that the mounting section is designed as an enclosed ring.
An optical time-stamping device , comprising: - an optical instrument having a retina having a field of view and being suitable for shooting said field of view on the retina , and - a receiver of a reference clock signal, the receiver being suitable for receiving information of a reference time; characterized in that the time-stamping device also comprises: - an illumination source remote from the retina of the optical instrument and configured to emit a light signal in the direction of the retina of the optical instrument and in the field of view of the optical instrument , and - control means , including an internal clock, and being connected to the receiver of a reference clock signal by means of a first connection and to the illumination source by means of a second connection , and being configured to: - cyclically synchronize their internal clock with the reference time; - control the illumination source for the emission of a light signal synchronized with the reference clock signal. - an optical instrument having a retina having a field of view and being suitable for shooting said field of view on the retina , and - a receiver of a reference clock signal, the receiver being suitable for receiving information of a reference time; - an illumination source remote from the retina of the optical instrument and configured to emit a light signal in the direction of the retina of the optical instrument and in the field of view of the optical instrument , and - control means , including an internal clock, and being connected to the receiver of a reference clock signal by means of a first connection and to the illumination source by means of a second connection , and being configured to: - cyclically synchronize their internal clock with the reference time; - control the illumination source for the emission of a light signal synchronized with the reference clock signal. - cyclically synchronize their internal clock with the reference time; - control the illumination source for the emission of a light signal synchronized with the reference clock signal.
Device for machine monitoring comprising at least one camera for capturing image data in the area of a machine , a control unit for controlling the components of the device , an evaluation unit for evaluating the image data captured with the aid of the at least one camera , a storage unit for storing and/or temporarily storing the image data captured with the aid of the at least one camera and a network module for connecting the at least one camera at least to the control unit and the evaluation unit , wherein at least one camera is designed as a trigger camera , so that the storage and/or evaluation of the image data captured by the at least one camera can be limited to a relevant time range in the sense of a time window defined as a function of the time of the trigger event, wherein the at least one camera is designed to continuously record video sequences of a predetermined length, wherein the video sequences can be transmitted to the control unit and the evaluation unit by means of the network module , characterized in that the evaluation unit is designed to evaluate the video sequences of the trigger camera for the presence of a trigger event in the sense of a malfunction of the monitored machine , wherein the control unit of the device for machine monitoring is designed to retrieve a predefined number of video sequences from the at least one camera via the network module only when a trigger event is present in a video sequence of the trigger camera and to make the at least one retrieved video sequence available to the evaluation unit for evaluation and/or for storage of the at least one video sequence in the storage unit .
Self-propelled floor cleaning device for cleaning floor surfaces , comprising a housing and at least one rotating floor cleaning means on a lower side of the housing that faces the floor surface in a cleaning position, characterised in that at least one guide pin which is spaced apart from the floor cleaning means and projects from the lower side of the housing towards the floor surface is arranged on the lower side of the housing , the guide pin pushing cable-like objects on the floor surface in front of the rotating floor cleaning means .
A method of communicating data traffic through a virtual switch in a host operating system, OS, of a host device , the method comprising: monitoring the data traffic flowing through the virtual switch between a network interface controller of the host device and a plurality of virtual network interface controllers in the host OS, the data traffic including at least virtual machine data traffic flowing to and from virtual machine processes on the host device and host data traffic flowing to and from host operating system processes on the host device; designating one or more data packets of the monitored data traffic as virtual machine data traffic based on an evaluation of a Media Access Controller, MAC, address of the one or more data packets of the monitored data traffic where the MAC address corresponds to a virtual machine virtual network interface controller of the plurality of virtual network interface controllers; designating further one or more data packets of the monitored data traffic as host data traffic based on an evaluation of the MAC address of the further one or more data packets of the monitored data traffic where the MAC address corresponds to a host virtual network interface controller of the plurality of virtual network interface controllers; directing the virtual machine data traffic through a packet processor included in the virtual switch as the virtual machine data traffic traverses the virtual switch; and directing the host data traffic to bypass the packet processor included in the virtual switch as the host data traffic traverses the virtual switch. monitoring the data traffic flowing through the virtual switch between a network interface controller of the host device and a plurality of virtual network interface controllers in the host OS, the data traffic including at least virtual machine data traffic flowing to and from virtual machine processes on the host device and host data traffic flowing to and from host operating system processes on the host device; designating one or more data packets of the monitored data traffic as virtual machine data traffic based on an evaluation of a Media Access Controller, MAC, address of the one or more data packets of the monitored data traffic where the MAC address corresponds to a virtual machine virtual network interface controller of the plurality of virtual network interface controllers; designating further one or more data packets of the monitored data traffic as host data traffic based on an evaluation of the MAC address of the further one or more data packets of the monitored data traffic where the MAC address corresponds to a host virtual network interface controller of the plurality of virtual network interface controllers; directing the virtual machine data traffic through a packet processor included in the virtual switch as the virtual machine data traffic traverses the virtual switch; and directing the host data traffic to bypass the packet processor included in the virtual switch as the host data traffic traverses the virtual switch.
A method of installing a bunded pipe system for transfer of hazardous fluids, the method comprising: providing one or more fittings for terminating or splitting pipes in a bunded steel pipe run, each said fitting comprising an inner tubular steel member for joining to an end of the inner steel pipe of a bunded pipe and an outer tubular steel member at least partially surrounding the inner tubular member and spaced therefrom for joining to the outer steel pipe of the bunded pipe, each end of the inner tubular steel member of the fitting extending beyond the corresponding end of the outer tubular steel member; joining the inner tubular steel member to the inner tubular pipe of a bunded pipe; and joining the outer tubular steel member to the outer pipe of the bunded pipe; characterised in that the inner and outer tubular steel members are joined respectively to the inner and outer bunded pipes in situ in a cold process by inserting an end portion of each pipe into an end portion of each tubular steel member, or vice versa, to provide a male-female coupling and applying pressure at a plurality of points around the female coupling where it overlaps with the male coupling to compress the female coupling against the male coupling to form a crimped seal therebetween. providing one or more fittings for terminating or splitting pipes in a bunded steel pipe run, each said fitting comprising an inner tubular steel member for joining to an end of the inner steel pipe of a bunded pipe and an outer tubular steel member at least partially surrounding the inner tubular member and spaced therefrom for joining to the outer steel pipe of the bunded pipe, each end of the inner tubular steel member of the fitting extending beyond the corresponding end of the outer tubular steel member; joining the inner tubular steel member to the inner tubular pipe of a bunded pipe; and joining the outer tubular steel member to the outer pipe of the bunded pipe; characterised in that the inner and outer tubular steel members are joined respectively to the inner and outer bunded pipes in situ in a cold process by inserting an end portion of each pipe into an end portion of each tubular steel member, or vice versa, to provide a male-female coupling and applying pressure at a plurality of points around the female coupling where it overlaps with the male coupling to compress the female coupling against the male coupling to form a crimped seal therebetween.
A hair treatment composition comprising: (a) from 0.01 to 10 wt % of surfactant in a solvent, by weight of the total composition, and (b) a mixture of amino acids, wherein the mixture of amino acids comprises glutamic acid, alanine and proline, characterised in that the ratio of glutamic acid: alanine: proline is 2:1: 1 to 1:2:1 to 1:1:2 and the amount of mixture of amino acids is from 0.1 to 10% by weight of the total hair composition. (a) from 0.01 to 10 wt % of surfactant in a solvent, by weight of the total composition, and (b) a mixture of amino acids, wherein the mixture of amino acids comprises glutamic acid, alanine and proline, characterised in that the ratio of glutamic acid: alanine: proline is 2:1: 1 to 1:2:1 to 1:1:2 and the amount of mixture of amino acids is from 0.1 to 10% by weight of the total hair composition.
A connector-fitting structure of flexible printed circuit , comprising: a flexible printed circuit on which a wiring pattern is formed onto a thin and flexible base film ; a contact point portion formed on one end of the flexible printed circuit , and connected to the wiring pattern , the contact point portion capable of engaging with a contact point portion of a partner connector; an electronic component connected to the wiring pattern at one end part of the flexible printed circuit ; and a connector to which the one end part of the flexible printed circuit is fitted, the contact point portion positioned in a front side of the connector , the electronic component positioned in a rear side of the connector , and the one end part of the flexible printed circuit fitted to the connector to cause an entire of the electronic component to be housed in the rear side of the connector , wherein the connector includes a connector housing with a bottom-wall portion extending along a fitting direction, in which the front side of the center of the connector housing is indented stepwise in the fitting direction, and a pair of side-wall portions are positioned, respectively, onto both sides of the bottom-wall portion along the fitting direction, and wherein the electronic component is on a part of the flexible printed circuit which comprises a reinforcing film as a reinforcing plate bonded onto the surface of the base film and this reinforcing film, abuts the connector housing with no gap. a flexible printed circuit on which a wiring pattern is formed onto a thin and flexible base film ; a contact point portion formed on one end of the flexible printed circuit , and connected to the wiring pattern , the contact point portion capable of engaging with a contact point portion of a partner connector; an electronic component connected to the wiring pattern at one end part of the flexible printed circuit ; and a connector to which the one end part of the flexible printed circuit is fitted, the contact point portion positioned in a front side of the connector , the electronic component positioned in a rear side of the connector , and the one end part of the flexible printed circuit fitted to the connector to cause an entire of the electronic component to be housed in the rear side of the connector , wherein the connector includes a connector housing with a bottom-wall portion extending along a fitting direction, in which the front side of the center of the connector housing is indented stepwise in the fitting direction, and a pair of side-wall portions are positioned, respectively, onto both sides of the bottom-wall portion along the fitting direction, and wherein the electronic component is on a part of the flexible printed circuit which comprises a reinforcing film as a reinforcing plate bonded onto the surface of the base film and this reinforcing film, abuts the connector housing with no gap.
Method for closed-loop control of the velocity of a rail vehicle , in which - a velocity error characteristic value (e v ) is provided, which is representative of a deviation between an instantaneous velocity (v actual ) of the rail vehicle and a predefined velocity (v target ) of the rail vehicle , - an acceleration error characteristic value (e a ) is provided, which is representative of a deviation between an instantaneous acceleration (a actual ) of the rail vehicle and a predefined acceleration (a target ) of the rail vehicle , - depending upon the velocity error characteristic value (e v ), a velocity error factor (f1) is ascertained, by way of which the velocity error characteristic value (e v ) is mapped to a value range [0; 1], - depending upon a multiplication of the velocity error factor (f1) by the acceleration error characteristic value (e a ), a correction characteristic value (K) is ascertained, and - a sum of the correction characteristic value (K) and the velocity error characteristic value (e v ) is supplied to an integral controller (I) on the input side, - the velocity error characteristic value (e v ) is supplied to a proportional controller (P) on the input side, and - a sum of a characteristic value present at the output of the integral controller (I) and of a characteristic value present at the output of the proportional controller (P) is output as a manipulated variable (u v ) for closed-loop control of the velocity of the rail vehicle . - a velocity error characteristic value (e v ) is provided, which is representative of a deviation between an instantaneous velocity (v actual ) of the rail vehicle and a predefined velocity (v target ) of the rail vehicle , - an acceleration error characteristic value (e a ) is provided, which is representative of a deviation between an instantaneous acceleration (a actual ) of the rail vehicle and a predefined acceleration (a target ) of the rail vehicle , - depending upon the velocity error characteristic value (e v ), a velocity error factor (f1) is ascertained, by way of which the velocity error characteristic value (e v ) is mapped to a value range [0; 1], - depending upon a multiplication of the velocity error factor (f1) by the acceleration error characteristic value (e a ), a correction characteristic value (K) is ascertained, and - a sum of the correction characteristic value (K) and the velocity error characteristic value (e v ) is supplied to an integral controller (I) on the input side, - the velocity error characteristic value (e v ) is supplied to a proportional controller (P) on the input side, and - a sum of a characteristic value present at the output of the integral controller (I) and of a characteristic value present at the output of the proportional controller (P) is output as a manipulated variable (u v ) for closed-loop control of the velocity of the rail vehicle .
A frame for a tractor mounting a flexible cable apparatus comprising a Bowden cable having an outer cable housing and a coaxial cable therein to which a load is applied, and a load cell for indicating the load applied to said flexible cable apparatus ; wherein a U-shaped bracket comprises an interconnecting base and first and second legs extend from the ends of said base , said first leg being mounted on the frame and characterised in that said second leg is mounted to one end of said cable housing , the load cell is connected between the frame and said second leg , the load indicated on said load cell is proportional to the load on said cable housing .