mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an innerspring unit comprising pocketed springs, the method comprising the steps of (a) providing an innerspring main body comprising a plurality of first strings of pocketed springs; and (b) attaching at least one second string of pocketed springs to a lateral surface of the innerspring main body , so that the at least one second string of pocketed springs extends in a longitudinal direction of the innerspring main body , wherein the springs of the at least one second string of pocketed springs have a spring characteristic or a spring geometry different from the springs of the plurality of first strings of the innerspring main body , the at least one second string of pocketed springs forming together with the innerspring main body the innerspring unit , wherein step (b) comprises compressing the springs of the at least one second string of pocketed springs prior to attaching the at least one second string of pocketed springs to the innerspring main body and allowing the compressed springs to expand after attaching the at least one second string of pocketed springs to the lateral surface of the innerspring main body , wherein the method is performed as a fully automated process by an innerspring unit assembly machine comprising a first station for providing the innerspring main body by carrying out step (a) and a second station for manufacturing the innerspring unit from the innerspring main body and the at least one second string of pocketed springs by carrying out step (b), and wherein the innerspring main body is transported from the first station to the second station using a conveyor device . (a) providing an innerspring main body comprising a plurality of first strings of pocketed springs; and (b) attaching at least one second string of pocketed springs to a lateral surface of the innerspring main body , so that the at least one second string of pocketed springs extends in a longitudinal direction of the innerspring main body , wherein the springs of the at least one second string of pocketed springs have a spring characteristic or a spring geometry different from the springs of the plurality of first strings of the innerspring main body , the at least one second string of pocketed springs forming together with the innerspring main body the innerspring unit , wherein step (b) comprises compressing the springs of the at least one second string of pocketed springs prior to attaching the at least one second string of pocketed springs to the innerspring main body and allowing the compressed springs to expand after attaching the at least one second string of pocketed springs to the lateral surface of the innerspring main body , wherein the method is performed as a fully automated process by an innerspring unit assembly machine comprising a first station for providing the innerspring main body by carrying out step (a) and a second station for manufacturing the innerspring unit from the innerspring main body and the at least one second string of pocketed springs by carrying out step (b), and wherein the innerspring main body is transported from the first station to the second station using a conveyor device .
A polyethylsilicate composition comprising: 18-50% by weight SiO 2 based on the total composition weight; 0-60% by weight alcohol based on the total composition weight; and a positive amount of solvent, wherein said solvent forms up to 40% by weight, based on the total composition weight, and wherein said solvent comprises at least one of propylene carbonate, or propylene carbonate in combination with tert-butylacetate, 2-amino 2-methyl 1-propanol or parachlorobenzotrifluoride; and wherein said solvent and said alcohol in combination comprise 5-70% by weight, based on the total composition weight. 18-50% by weight SiO 2 based on the total composition weight; 0-60% by weight alcohol based on the total composition weight; and a positive amount of solvent, wherein said solvent forms up to 40% by weight, based on the total composition weight, and wherein said solvent comprises at least one of propylene carbonate, or propylene carbonate in combination with tert-butylacetate, 2-amino 2-methyl 1-propanol or parachlorobenzotrifluoride; and wherein said solvent and said alcohol in combination comprise 5-70% by weight, based on the total composition weight.
A lithium electrode , comprising: an electrically conductive structure layer , having at least one recess with one-side opening and an inner surface of the recess having at least one electrically conductive region and at least one electrically insulating region ; a lithium metal layer , disposed in the recess of the electrically conductive structure layer and contacting to the electrically conductive region ; and a porous covering layer , disposed on the electrically conductive structure layer and having a plurality of through holes to allow lithium ions and the electrolyte to pass characterized in that it further comprises: a solid electrolyte layer , movably disposed in the recess of the electrically conductive structure layer , and covering and contacting to the lithium metal layer ; and an electrolyte storage layer , disposed in the recess of the electrically conductive structure layer and covering the solid electrolyte layer , wherein the electrolyte storage layer contains a liquid or gel electrolyte. an electrically conductive structure layer , having at least one recess with one-side opening and an inner surface of the recess having at least one electrically conductive region and at least one electrically insulating region ; a lithium metal layer , disposed in the recess of the electrically conductive structure layer and contacting to the electrically conductive region ; and a porous covering layer , disposed on the electrically conductive structure layer and having a plurality of through holes to allow lithium ions and the electrolyte to pass characterized in that it further comprises: a solid electrolyte layer , movably disposed in the recess of the electrically conductive structure layer , and covering and contacting to the lithium metal layer ; and an electrolyte storage layer , disposed in the recess of the electrically conductive structure layer and covering the solid electrolyte layer , wherein the electrolyte storage layer contains a liquid or gel electrolyte. a solid electrolyte layer , movably disposed in the recess of the electrically conductive structure layer , and covering and contacting to the lithium metal layer ; and an electrolyte storage layer , disposed in the recess of the electrically conductive structure layer and covering the solid electrolyte layer , wherein the electrolyte storage layer contains a liquid or gel electrolyte.
Head restraint for a vehicle seat for a vehicle for at least one person, wherein the head restraint has a front side, which points in the direction of the person which is sitting on the vehicle seat, and has a rear side, which is arranged opposite to the front side of the head restraint , wherein the head restraint has a head box and at least one foam body , wherein the foam body can be mounted about at least a part of the head box and, in this regard, covers at least a part of the part of the head box arranged in the direction of the front side of the head restraint, specifically a front side of the head box, and in this regard covers at least a part of the part of the head box arranged in the direction of the rear side of the head restraint, specifically a rear side of the head box , wherein the head restraint has at least one loudspeaker and the foam body is designed such that the part of the foam body which covers the rear side of the head box forms a resonance volume, wherein the foam body on the rear side effects a dissipation of sound waves from the loudspeaker, wherein the foam body acts as a resonance body, characterised in that the loudspeaker is arranged between the rear side of the head box and the part of the foam body which covers the rear side of the head box, and the front side of the head box , arranged opposite the rear side of the head box , is covered only by the foam body , wherein the front side of the head box points in the direction of the person on the vehicle seat , wherein the foam body has at least one region which is perforated, and wherein the head box has at least one opening through which the sound wave from the loudspeaker in the head restraint is able to penetrate through the perforated region of the foam body to the outside in the direction of the person on the vehicle seat .
A method for determining a scheduling user, applied to a first base station in a data transmission system in a coordinated beamforming, CBF, weight adjustment process, wherein the first base station comprises at least two antennas, the first base station manages a first cell, and the method comprises: determining a first pre-scheduling user that is a CBF to-be-adjusted user at a second moment from a user in the first cell at a first moment, wherein the second moment is later than the first moment; determining a first transmit weight of the first cell at the second moment after CBF weight adjustment for the first pre-scheduling user; receiving a second transmit weight at the second moment that is sent by a second base station to which a second cell belongs in the data transmission system, wherein the second cell comprises a neighboring cell that meets a preset interaction condition and that is in a neighboring cell of the first cell; calculating a signal to interference plus noise ratio, SINR, of each user in the first cell at the second moment based on the first transmit weight and the second transmit weight; selecting a target scheduling user at the second moment from the users in the first cell based on the SINR of each user at the second moment, and characterised by transmitting , by the first base station, at the second moment data to the target scheduling user by using a modulation and coding scheme, MCS, of the target scheduling user, wherein a used transmit weight at the second moment is the first transmit weight determined by the first base station, and a transmit weight used by the second base station is the second transmit weight sent by the second base station. determining a first pre-scheduling user that is a CBF to-be-adjusted user at a second moment from a user in the first cell at a first moment, wherein the second moment is later than the first moment; determining a first transmit weight of the first cell at the second moment after CBF weight adjustment for the first pre-scheduling user; receiving a second transmit weight at the second moment that is sent by a second base station to which a second cell belongs in the data transmission system, wherein the second cell comprises a neighboring cell that meets a preset interaction condition and that is in a neighboring cell of the first cell; calculating a signal to interference plus noise ratio, SINR, of each user in the first cell at the second moment based on the first transmit weight and the second transmit weight; selecting a target scheduling user at the second moment from the users in the first cell based on the SINR of each user at the second moment, and characterised by transmitting , by the first base station, at the second moment data to the target scheduling user by using a modulation and coding scheme, MCS, of the target scheduling user, wherein a used transmit weight at the second moment is the first transmit weight determined by the first base station, and a transmit weight used by the second base station is the second transmit weight sent by the second base station.
Process for the determination of the cross-sectional area ( A o ) as a function of a height of an object comprising the steps of a. Providing a container having a closed bottom , an open top , a side wall , a tap at a reference height, b. Providing a flowable medium having a surface in the container , c. Providing at least one measuring means for measuring a height of the surface of the flowable medium in the container relative to the reference height, d. Providing an object having a vertical Z-axis relative to the X,Y plane of the surface and positioning the object in the container, the object being at least partly submerged in the flowable medium , e. Providing calculating means for calculating the cross-sectional area and/or volume of the object in the X,Y plane relative to a position on the Z-axis, f. Opening the tap in the container to allow the flowable medium to flow out of the container , removing the flowable medium by using a pump, or adding flowable medium to the container, g. Measuring the height of the surface of the flowable medium relative to the reference height as a function of time (h(t)) during the inflow or outflow of the flowable medium , h. Calculating the cross-sectional area of the object ( A o ) as a function of the height relative to the reference height based on the determined height of the surface as a function of time (h(t)) during the inflow or outflow of the flowable medium in step f). a. Providing a container having a closed bottom , an open top , a side wall , a tap at a reference height, b. Providing a flowable medium having a surface in the container , c. Providing at least one measuring means for measuring a height of the surface of the flowable medium in the container relative to the reference height, d. Providing an object having a vertical Z-axis relative to the X,Y plane of the surface and positioning the object in the container, the object being at least partly submerged in the flowable medium , e. Providing calculating means for calculating the cross-sectional area and/or volume of the object in the X,Y plane relative to a position on the Z-axis, f. Opening the tap in the container to allow the flowable medium to flow out of the container , removing the flowable medium by using a pump, or adding flowable medium to the container, g. Measuring the height of the surface of the flowable medium relative to the reference height as a function of time (h(t)) during the inflow or outflow of the flowable medium , h. Calculating the cross-sectional area of the object ( A o ) as a function of the height relative to the reference height based on the determined height of the surface as a function of time (h(t)) during the inflow or outflow of the flowable medium in step f).
A system for reproducing aerodynamic boundary layer transition conditions in a wind tunnel test environment under ambient to cryogenic temperature conditions between about -250°F to about 100°F (about -160°C to about 38°C), the system comprising: a test component disposed in the wind tunnel test environment and defining an exterior surface ; at least one trip dot , wherein the trip dot is an artificial boundary layer transition device in the form of a dot, mounted on the test component and having a first state, in which a distal surface of the at least one trip dot is at a first elevation relative to the exterior surface of the test component , wherein the first elevation is a first height above the exterior surface , and a second state, in which the distal surface of the at least one trip dot is at a second elevation relative to the exterior surface of the test component , wherein the second elevation is a second height above the exterior surface that is greater than the first height ; an actuator (120, 120', 120", 120"') operably coupled to the at least one trip dot and configured to transition the at least one trip dot between first and second states; one or more sensors for providing data indicative of one or more conditions in the wind tunnel test environment; a controller in communication with the actuator (120, 120', 120", 120′′′) and configured to remotely cause the actuator (120, 120', 120", 120"') to transition the at least one trip dot between the first and second states. a test component disposed in the wind tunnel test environment and defining an exterior surface ; at least one trip dot , wherein the trip dot is an artificial boundary layer transition device in the form of a dot, mounted on the test component and having a first state, in which a distal surface of the at least one trip dot is at a first elevation relative to the exterior surface of the test component , wherein the first elevation is a first height above the exterior surface , and a second state, in which the distal surface of the at least one trip dot is at a second elevation relative to the exterior surface of the test component , wherein the second elevation is a second height above the exterior surface that is greater than the first height ; an actuator (120, 120', 120", 120"') operably coupled to the at least one trip dot and configured to transition the at least one trip dot between first and second states; one or more sensors for providing data indicative of one or more conditions in the wind tunnel test environment; a controller in communication with the actuator (120, 120', 120", 120′′′) and configured to remotely cause the actuator (120, 120', 120", 120"') to transition the at least one trip dot between the first and second states.
Method for generating a status signal (ST) on the basis of at least one sensor signal (SS, SS1, SS2) of at least one sensor , wherein - with a first trainable system , which has been trained to recognise a predefined property (E), it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor indicates the predefined property (E), and in the event that the property (E) is recognised, a first auxiliary signal (Hi1) that confirms the property (E) is generated, - with at least one second trainable system , which has been trained to recognise the absence of the predefined property (E), it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor or the sensor signal (SS, SS1, SS2) of at least one further sensor , which is suitable to indicate the same property (E), does not indicate the predefined property (E), and in the event that the absence of the property (E) is ascertained, a second auxiliary signal (Hi2) that confirms the absence of the property (E) is generated, and - with at least one evaluation facility a status signal (ST) that indicates the presence of the property (E) is generated if the first auxiliary signal (Hi1) confirms the presence of the property (E) and the second auxiliary signal (Hi2) does not confirm the absence of the property (E), and a status signal (ST) that indicates the absence of the property (E) is generated if the first auxiliary signal (Hi1) does not confirm the presence of the property (E) and the second auxiliary signal (Hi2) confirms the absence of the property (E). - with a first trainable system , which has been trained to recognise a predefined property (E), it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor indicates the predefined property (E), and in the event that the property (E) is recognised, a first auxiliary signal (Hi1) that confirms the property (E) is generated, - with at least one second trainable system , which has been trained to recognise the absence of the predefined property (E), it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor or the sensor signal (SS, SS1, SS2) of at least one further sensor , which is suitable to indicate the same property (E), does not indicate the predefined property (E), and in the event that the absence of the property (E) is ascertained, a second auxiliary signal (Hi2) that confirms the absence of the property (E) is generated, and - with at least one evaluation facility a status signal (ST) that indicates the presence of the property (E) is generated if the first auxiliary signal (Hi1) confirms the presence of the property (E) and the second auxiliary signal (Hi2) does not confirm the absence of the property (E), and a status signal (ST) that indicates the absence of the property (E) is generated if the first auxiliary signal (Hi1) does not confirm the presence of the property (E) and the second auxiliary signal (Hi2) confirms the absence of the property (E).
A scraper component of a three-dimensional printing device, comprising a scraper , a fixing frame , a pulley and a sliding rail , wherein the scraper is installed on the fixing frame , the pulley is set on at least one end of the fixing frame , the sliding rail has a horizontal first rail , which is characterized in that the sliding rail has a tilted and movable second rail , a first end of the second rail is in movable contact with the first rail and a second end is located above the first rail ; when the pulley slides from a middle to an end of the first rail , the pulley enters the second rail from the first end and leaves the second rail from the second end then comes back to the first rail ; when the pulley slides from an end to a middle of the first rail , the pulley passes through the second rail from below.
A method of forming a 3-substituted-6-trifluoromethyl pyridine of Formula I, wherein R represents hydrogen, an alkyl group, or an aryl group; the method comprising reacting a 6-trichloromethyl halogenated pyridine with a fluorinating agent to form a 6-trifluoromethyl halogenated pyridine; and reacting the 6-trifluoromethyl halogenated pyridine with a reducing agent to form a 3-halo-6-trifluoromethyl pyridine, wherein the method includes forming the compound of Formula I from a compound of Formula II by fluorinating the compound of Formula II to form a compound of Formula III, wherein X represents a halogen; Y represents hydrogen or a halogen; and Q 1 represents a fluorinating agent; and either reducing the compound of Formula III to form a compound of Formula IV and a Grignard reaction of the compound of Formula IV to form the compound of Formula I, or a Grignard reaction of the compound of Formula III to form a compound of Formula V and reducing the compound of Formula V to form the compound of Formula I, wherein Q 2 represents a reducing agent; and Q 3 represents a Grignard reagent in the presence of a metal-based catalyst. wherein R represents hydrogen, an alkyl group, or an aryl group; the method comprising reacting a 6-trichloromethyl halogenated pyridine with a fluorinating agent to form a 6-trifluoromethyl halogenated pyridine; and reacting the 6-trifluoromethyl halogenated pyridine with a reducing agent to form a 3-halo-6-trifluoromethyl pyridine, wherein the method includes forming the compound of Formula I from a compound of Formula II by fluorinating the compound of Formula II to form a compound of Formula III, X represents a halogen; Y represents hydrogen or a halogen; and Q 1 represents a fluorinating agent; and either reducing the compound of Formula III to form a compound of Formula IV and a Grignard reaction of the compound of Formula IV to form the compound of Formula I, or a Grignard reaction of the compound of Formula III to form a compound of Formula V and reducing the compound of Formula V to form the compound of Formula I, Q 2 represents a reducing agent; and Q 3 represents a Grignard reagent in the presence of a metal-based catalyst.