mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a piloted spool valve with a first proportional pilot valve, and a second proportional pilot valve, the method comprising: generating a command control signal for moving a spool of the piloted spool valve in a first direction; determining a reaction control signal based on the generated command control signal, the reaction control signal for moving the spool of the piloted spool valve in a second direction, the second direction being opposite to the first direction; applying the command control signal to the first proportional pilot valve to actuate the first proportional pilot valve to move the spool of the piloted spool valve in the first direction; characterized by : applying the reaction control signal to the second proportional pilot valve to actuate the second proportional pilot valve to move the spool of the piloted spool valve in the second direction at the same time as the applying of the command control signal; and moving the spool of the piloted spool valve in a direction determined by both the command control signal and the reaction control signal. generating a command control signal for moving a spool of the piloted spool valve in a first direction; determining a reaction control signal based on the generated command control signal, the reaction control signal for moving the spool of the piloted spool valve in a second direction, the second direction being opposite to the first direction; applying the command control signal to the first proportional pilot valve to actuate the first proportional pilot valve to move the spool of the piloted spool valve in the first direction; characterized by : applying the reaction control signal to the second proportional pilot valve to actuate the second proportional pilot valve to move the spool of the piloted spool valve in the second direction at the same time as the applying of the command control signal; and moving the spool of the piloted spool valve in a direction determined by both the command control signal and the reaction control signal. applying the reaction control signal to the second proportional pilot valve to actuate the second proportional pilot valve to move the spool of the piloted spool valve in the second direction at the same time as the applying of the command control signal; and moving the spool of the piloted spool valve in a direction determined by both the command control signal and the reaction control signal.
Apparatus for generating dialysate for dialysis comprising a dialysate outlet and a dialysate inlet and dialysate purifying means, characterised in that the dialysate purifying means comprise a cryopurifier for generating pure water, the cyropurifier having an inlet and an outlet , wherein the inlet of the cryopurifier is connected to the dialysate outlet and the outlet of the cryopurifier is connected to the dialysate inlet .
A refrigerator comprising a cabinet forming a storage space, a main door opening and closing the storage space and having an opening part communicated with the storage space, and a sub-door rotatably mounted on the main door and opening and closing the opening part , the refrigerator comprising: a knock detection device provided in the sub-door and detecting a user's knocking operation; wherein there is a panel assembly of a half mirror material provided in the sub-door , and allowing selectively viewing an inside of the refrigerator by a user; a lighting unit being provided inside the refrigerator, and turned on according to the verified detection of a knocking user input by the knock detection device while the door is closed to make the panel assembly appear transparent and in this way allowing viewing an inside of the refrigerator by a user; and a display unit being provided inside the refrigerator main door corresponding to the panel assembly and being visible when the lighting unit is turned on to display an operation state of the refrigerator , wherein the panel assembly comprises a front panel which forms an exterior of a front surface thereof, an insulation panel which is formed to be spaced apart from a rear surface of the front panel , and a spacer bar provided between the front panel and the insulation panel . a knock detection device provided in the sub-door and detecting a user's knocking operation; wherein there is a panel assembly of a half mirror material provided in the sub-door , and allowing selectively viewing an inside of the refrigerator by a user; a lighting unit being provided inside the refrigerator, and turned on according to the verified detection of a knocking user input by the knock detection device while the door is closed to make the panel assembly appear transparent and in this way allowing viewing an inside of the refrigerator by a user; and a display unit being provided inside the refrigerator main door corresponding to the panel assembly and being visible when the lighting unit is turned on to display an operation state of the refrigerator , wherein the panel assembly comprises a front panel which forms an exterior of a front surface thereof, an insulation panel which is formed to be spaced apart from a rear surface of the front panel , and a spacer bar provided between the front panel and the insulation panel .
A process for making a consumer goods product comprising a benefit delivery composition, wherein the process comprises the steps of: (a) contacting a surfactant and a fatty amphiphile to form a lamellar phase composition; (b) contacting the lamellar phase composition with silicone to form the benefit delivery composition, (c) contacting the benefit delivery composition with at least three different consumer goods products ingredients to form a consumer goods product, wherein the fatty amphiphile has a melting point of at least 40°C, wherein in step (a) the fatty amphiphile is at a temperature above its melting point when it is contacted with the surfactant, wherein the fatty amphiphile within the lamellar phase composition is subsequently cooled to a temperature below the melting point of the fatty amphiphile, wherein the benefit delivery composition comprises from 50wt% to less than 90wt% lamellar phase composition and from greater than 10wt% to 50wt% silicone, and wherein the fatty amphiphile is selected from fatty acid, fatty alcohol and mixtures thereof, wherein step (b) is carried out under conditions of low shear, having a maximum tip speed of 2.5ms -1 , preferably 2.0ms -1 , or even 1.5ms -1 , and at maximum shear rate of 500s -1 (a) contacting a surfactant and a fatty amphiphile to form a lamellar phase composition; (b) contacting the lamellar phase composition with silicone to form the benefit delivery composition, (c) contacting the benefit delivery composition with at least three different consumer goods products ingredients to form a consumer goods product,
A method for regenerating solid sorbent material in a carbon dioxide (CO 2 ) removal system, the method comprising: providing a sorbent having a solid deactivated amine that is incapable of capturing CO 2 applied thereto because the amine has been protonated by reaction with an acid gas stronger than CO 2 thus forming a heat stable salt; dispersing a base solution on the solid solvent layer; reacting the base solution with the deactivated amine, the base solution being dispersed on the solid deactivation amine in an amount sufficient to provide enough hydroxide ions to chemically reverse protonation of the deactivate amine; and regenerating the deactivated amine into an amine capable of capturing CO 2 , wherein the amine capable of capturing CO 2 is selected from the group consisting of, diethanolamine (DEA), diisopropanolamine (DIPA), and 2-hydroxyethyl piperazine (HEP). providing a sorbent having a solid deactivated amine that is incapable of capturing CO 2 applied thereto because the amine has been protonated by reaction with an acid gas stronger than CO 2 thus forming a heat stable salt; dispersing a base solution on the solid solvent layer; reacting the base solution with the deactivated amine, the base solution being dispersed on the solid deactivation amine in an amount sufficient to provide enough hydroxide ions to chemically reverse protonation of the deactivate amine; and regenerating the deactivated amine into an amine capable of capturing CO 2 , wherein the amine capable of capturing CO 2 is selected from the group consisting of, diethanolamine (DEA), diisopropanolamine (DIPA), and 2-hydroxyethyl piperazine (HEP).
A method, performed by a supporting node , for supporting a process scheduling node when scheduling a process to a first execution node of a cluster of execution nodes , wherein the method comprises: receiving (A140), from the first execution node being selected by the process scheduling node for execution of the process, a request for allocation of one or more Hardware Acceleration, HA, devices , selecting (A150) at least one HA device among a list of HA devices available for allocation to the first execution node , allocating (A160) said at least one HA device , being managed by a second execution node of the cluster , to be available for use by the first execution node , reducing (A170) a value representing number of HA devices available for allocation to the first execution node while taking said at least one HA device into account, sending (A180) the value to the first execution node , and sending (A200), to the first execution node , a message indicating successful allocation of said at least one HA device . receiving (A140), from the first execution node being selected by the process scheduling node for execution of the process, a request for allocation of one or more Hardware Acceleration, HA, devices , selecting (A150) at least one HA device among a list of HA devices available for allocation to the first execution node , allocating (A160) said at least one HA device , being managed by a second execution node of the cluster , to be available for use by the first execution node , reducing (A170) a value representing number of HA devices available for allocation to the first execution node while taking said at least one HA device into account, sending (A180) the value to the first execution node , and sending (A200), to the first execution node , a message indicating successful allocation of said at least one HA device .
A releasable wheel assembly comprising: a base plate comprising a pair of side walls , wherein each side wall of the pair of side walls is defined on one side of the base plate ; a bracket coupled to the base plate, the bracket comprising a plurality of bosses , each boss comprising a hole; an axle passing through the hole of each boss, the axle including a pair of circumferential grooves , wherein each circumferential groove is adjacent to a respective end of the axle; a pair of wheels on the axle , the axle extending through a hub on each wheel ; a pair of locking caps , each locking cap fitting over an end of the axle , and each locking cap comprising a clip for engaging the axle at the circumferential groove; and characterised by , a pair of braces , wherein the pair of braces are symmetrical, wherein each brace of the pair of braces comprises: a first end coupled to a respective side wall of the pair of side walls of the base plate ; a second end coupled to the axle between one wheel of the pair of wheels and one locking cap of the pair of locking caps ; and a middle portion defined at an angle between the second end and the first end , the middle portion extending outward from the base plate , and at an upward angle from the first end to the second end . a base plate comprising a pair of side walls , wherein each side wall of the pair of side walls is defined on one side of the base plate ; a bracket coupled to the base plate, the bracket comprising a plurality of bosses , each boss comprising a hole; an axle passing through the hole of each boss, the axle including a pair of circumferential grooves , wherein each circumferential groove is adjacent to a respective end of the axle; a pair of wheels on the axle , the axle extending through a hub on each wheel ; a pair of locking caps , each locking cap fitting over an end of the axle , and each locking cap comprising a clip for engaging the axle at the circumferential groove; and characterised by , a pair of braces , wherein the pair of braces are symmetrical, wherein each brace of the pair of braces comprises: a first end coupled to a respective side wall of the pair of side walls of the base plate ; a second end coupled to the axle between one wheel of the pair of wheels and one locking cap of the pair of locking caps ; and a middle portion defined at an angle between the second end and the first end , the middle portion extending outward from the base plate , and at an upward angle from the first end to the second end . a first end coupled to a respective side wall of the pair of side walls of the base plate ; a second end coupled to the axle between one wheel of the pair of wheels and one locking cap of the pair of locking caps ; and a middle portion defined at an angle between the second end and the first end , the middle portion extending outward from the base plate , and at an upward angle from the first end to the second end .
A method of controlling a permanent magnet synchronous electric machine PMSM drive using a Deadbeat Predictive Current Control DBPCC scheme, the method comprising: determining d-axis and q-axis stator current values (i d , i q ) representative of a measured PMSM current; determining d-axis and q-axis reference current values (i d *, i q *); based on the stator current values (i d , i q ) and the reference current values (i d *, i q *), determining d-axis and q-axis current correction values (C d , C q ); determining corrected reference current values (i d **, i q **) as a sum of the reference current values (i d *, i q *) and the current correction values (C d , C q ); and controlling the PMSM drive using the corrected reference current values (i d **, i q **) as reference current inputs of the DBPCC scheme, characterized in that determining the d-axis and q-axis current correction values (C d , C q ) comprises determining and summing a plurality of current correction components including a fundamental current correction component (C d,0 , C q,0 ) and at least one harmonic current correction component (C d,n , C q,n ). determining d-axis and q-axis stator current values (i d , i q ) representative of a measured PMSM current; determining d-axis and q-axis reference current values (i d *, i q *); based on the stator current values (i d , i q ) and the reference current values (i d *, i q *), determining d-axis and q-axis current correction values (C d , C q ); determining corrected reference current values (i d **, i q **) as a sum of the reference current values (i d *, i q *) and the current correction values (C d , C q ); and controlling the PMSM drive using the corrected reference current values (i d **, i q **) as reference current inputs of the DBPCC scheme, characterized in that determining the d-axis and q-axis current correction values (C d , C q ) comprises determining and summing a plurality of current correction components including a fundamental current correction component (C d,0 , C q,0 ) and at least one harmonic current correction component (C d,n , C q,n ).
A hydrogen storage alloy material having a bulk region and an interface oxide region, said interface region having a plurality of catalytic channels defined therethrough, said channels having a cross-sectional dimension in the range of 25-250 angstroms, such as a range of 25-150 angstroms, and a length which is greater than said cross-sectional dimension, said channels including a plurality catalytic sites defined thereupon, said sites having a concentration of nickel which is greater than the concentration of nickel in the remainder of said alloy; wherein the volume fraction of said channels in said interface region is greater than 5%.
A display system comprising: a plurality of light pipes , each light pipe having a light input surface and a light output surface at opposing ends of the light pipe; a plurality of light sources configured to emit light into the light input surface of the light pipes, wherein one or more light sources are configured to emit light of different wavelengths than other light sources; and a spatial light modulator configured to modulate light received from the light output surface of the light pipes to form images, wherein each light pipe is oriented to localize outputted light on a different location on the spatial light modulator than other light pipes. a plurality of light pipes , each light pipe having a light input surface and a light output surface at opposing ends of the light pipe; a plurality of light sources configured to emit light into the light input surface of the light pipes, wherein one or more light sources are configured to emit light of different wavelengths than other light sources; and a spatial light modulator configured to modulate light received from the light output surface of the light pipes to form images, wherein each light pipe is oriented to localize outputted light on a different location on the spatial light modulator than other light pipes.
A method for determining a voltage of a processor of a terminal , wherein the terminal comprises an auxiliary processor and a central processing unit, CPU , and the method comprises: in a switch-on process of the terminal, after completing system initialization, determining, by the auxiliary processor, a minimum working voltage of the CPU; setting, by the auxiliary processor, a current voltage of the CPU to the minimum working voltage; and completing, by the CPU at the minimum working voltage, the switch-on process of the terminal, and controlling the terminal to work. in a switch-on process of the terminal, after completing system initialization, determining, by the auxiliary processor, a minimum working voltage of the CPU; setting, by the auxiliary processor, a current voltage of the CPU to the minimum working voltage; and completing, by the CPU at the minimum working voltage, the switch-on process of the terminal, and controlling the terminal to work.
A gasket (1, 1', 1", 1''', 1'''') for a valve of an internal combustion engine ; said valve comprising a guide element , defining a through seat, and a stem sliding in said seat; said gasket (1, 1', 1", 1''', 1'''') comprising: - an elastically deformable seal element (12, 12', 12", 12''', 12''''), preferably comprising a fluorinated elastomer, having an annular shape with respect to an axis (A) and adapted to be arranged externally on said valve to cooperate with said stem and/or with said guide element ; - a support member (13, 13', 13", 13''', 13'''') made of plastic, preferably comprising a polyamide polymer, having an annular shape with respect to said axis (A) and having at least one retention portion (33, 33', 33") coupled coaxially on a first portion of said seal element (12, 12', 12", 12''', 12'''') so that said first portion is in use radially interposed between said retention portion (33, 33', 33") of said support member (13, 13', 13", 13''', 13'''') and said valve ; and - elastic means (34, 34", 34''', 34'''') acting on a second portion of said seal element (12, 12', 12", 12''', 12''''), distinct from said first portion , to radially press in use the second portion on said valve ; wherein said elastic means comprise a push portion (34, 34", 34''', 34'''') of said support member (13, 13', 13", 13''', 13'''') made in one single piece with said retention portion (33, 33', 33"); wherein said seal element (12, 12', 12", 12''', 12'''') is formed by means of an injection moulding operation in a moulding chamber containing said support member (13, 13', 13", 13''', 13'''') so as to achieve, at the end of the moulding operation, a physical union, preferably by means of a silane resin, between the seal element (12, 12', 12", 12''', 12'''') and the support member (13, 13', 13", 13''', 13''''). - an elastically deformable seal element (12, 12', 12", 12''', 12''''), preferably comprising a fluorinated elastomer, having an annular shape with respect to an axis (A) and adapted to be arranged externally on said valve to cooperate with said stem and/or with said guide element ; - a support member (13, 13', 13", 13''', 13'''') made of plastic, preferably comprising a polyamide polymer, having an annular shape with respect to said axis (A) and having at least one retention portion (33, 33', 33") coupled coaxially on a first portion of said seal element (12, 12', 12", 12''', 12'''') so that said first portion is in use radially interposed between said retention portion (33, 33', 33") of said support member (13, 13', 13", 13''', 13'''') and said valve ; and - elastic means (34, 34", 34''', 34'''') acting on a second portion of said seal element (12, 12', 12", 12''', 12''''), distinct from said first portion , to radially press in use the second portion on said valve ;
A method for evaluating a building's wireless performance, the method comprising: constructing an environment model, the environment model comprising a layout of the building, a power density of transmitters P T [W/m 2 ], and a considered frequency band f c ; computing a signal to interference plus noise ratio SINR for the building in dependence on the environment model; computing a SINR for an open space in dependence on the environment model, the computing size for the open space being the same as the computing size of the building, and wherein the open space is an ideal space in absence of the building or other surroundings; comparing the SINR for the building with the SINR for the open space; and in dependence on the comparison, evaluating the building wireless performance by calculating an interference power gain and an intended power gain for the building. constructing an environment model, the environment model comprising a layout of the building, a power density of transmitters P T [W/m 2 ], and a considered frequency band f c ; computing a signal to interference plus noise ratio SINR for the building in dependence on the environment model; computing a SINR for an open space in dependence on the environment model, the computing size for the open space being the same as the computing size of the building, and wherein the open space is an ideal space in absence of the building or other surroundings; comparing the SINR for the building with the SINR for the open space; and in dependence on the comparison, evaluating the building wireless performance by calculating an interference power gain and an intended power gain for the building.