mhurhangee/patent-ind-claim-en huggingface dataset:
A controller for managing an energy storage and recovery system comprising an energy storage device, wherein the energy storage device is a flywheel and a transmission, capable of applying torque or transferring power between the flywheel and an energy source/sink , wherein the controller is arranged: to receive a first input representative of a torque or power demanded from the energy storage and recovery system , or to receive a first signal from which the controller calculates said first input; to receive a second signal, representative of motion or speed of the flywheel , from which the controller calculates a second input that is representative of a torque or power supplied by the energy storage and recovery system ; and to manage torque applied by the energy storage and recovery system to the energy source/sink or to manage power transferred between the energy storage and recovery system and the energy source/sink in response to discrepancy between the torque demanded and the torque supplied or in response to discrepancy between the power demanded and the power supplied, and wherein the controller is arranged to estimate a demanded flywheel rotational speed or energy level from the first input or the first signal, to obtain a signal representative of the actual flywheel rotational speed, or energy level, and to manage the said torque applied or the said power transferred in response to the discrepancy between the demanded flywheel rotational speed, or energy energy level and the actual flywheel rotational speed, or energy level. to receive a first input representative of a torque or power demanded from the energy storage and recovery system , or to receive a first signal from which the controller calculates said first input; to receive a second signal, representative of motion or speed of the flywheel , from which the controller calculates a second input that is representative of a torque or power supplied by the energy storage and recovery system ; and to manage torque applied by the energy storage and recovery system to the energy source/sink or to manage power transferred between the energy storage and recovery system and the energy source/sink in response to discrepancy between the torque demanded and the torque supplied or in response to discrepancy between the power demanded and the power supplied, and wherein the controller is arranged to estimate a demanded flywheel rotational speed or energy level from the first input or the first signal, to obtain a signal representative of the actual flywheel rotational speed, or energy level, and to manage the said torque applied or the said power transferred in response to the discrepancy between the demanded flywheel rotational speed, or energy energy level and the actual flywheel rotational speed, or energy level.
A base station for communicating with a plurality of mobile devices and a core network , the base station operating according to a hybrid access mode and comprising: a closed subscriber group, CSG, management module configured to store a closed subscriber group identifier, CSG ID, of the base station ; a connection management module configured to communicate with the core network in pursuit of an X2 based intra-CSG handover process, the connection management module comprising: means for transferring a communication link associated with a mobile device to the base station from another base station , wherein the another base station has the same CSG ID as the base station but operates according to a closed access mode; and means for transmitting, to a mobility management entity in the core network in a path switch request, in a case where the base station has the same CSG ID as the another base station , data indicating a subscriber group access mode of the base station , a transport layer address, and a tunnel end point identifier. a closed subscriber group, CSG, management module configured to store a closed subscriber group identifier, CSG ID, of the base station ; a connection management module configured to communicate with the core network in pursuit of an X2 based intra-CSG handover process, the connection management module comprising: means for transferring a communication link associated with a mobile device to the base station from another base station , wherein the another base station has the same CSG ID as the base station but operates according to a closed access mode; and means for transmitting, to a mobility management entity in the core network in a path switch request, in a case where the base station has the same CSG ID as the another base station , data indicating a subscriber group access mode of the base station , a transport layer address, and a tunnel end point identifier.
A connection structure for a shield wire that has a shield conductor comprising: a shield fastening portion that is configured to tightly fasten the shield conductor of the shield wire (W) such that the shield fastening portion is connected to the shield wire (W), wherein the shield fastening portion is provided with a hole , wherein the shield fastening portion has a wire contact surface that includes: a non-knurled surface that is not knurled, the non-knurled surface being an area around the hole and on the downstream side of a wire pulling direction (P) ; and a knurled surface that is knurled, the knurled surface being an area other than the area around the hole and on the downstream side of the wire pulling direction (P). a shield fastening portion that is configured to tightly fasten the shield conductor of the shield wire (W) such that the shield fastening portion is connected to the shield wire (W), wherein the shield fastening portion is provided with a hole , wherein the shield fastening portion has a wire contact surface that includes: a non-knurled surface that is not knurled, the non-knurled surface being an area around the hole and on the downstream side of a wire pulling direction (P) ; and a knurled surface that is knurled, the knurled surface being an area other than the area around the hole and on the downstream side of the wire pulling direction (P).
A meter electronics adapted for detecting a residual material in a flow meter assembly , with the meter electronics comprising a processing system adapted to direct the flow meter to vibrate the flow meter assembly and receive a vibrational response from the flow meter assembly and a storage system configured to store flow meter parameters and data, the processing system being configured to compare the vibrational response to a predetermined residual material threshold to detect the residual material.
Apparatus for ascertaining the position of a first mechanical element and a second mechanical element with respect to one another, comprising a first measuring unit for positioning on the first mechanical element, a second measuring unit for positioning on the second mechanical element, and an evaluation unit , wherein the first measuring unit comprises means for producing at least one light beam , a scattering surface for scattering light (WV, PV) that strikes the scattering surface and a camera for recording images of the scattering surface, the latter being imaged on the camera , wherein the camera comprises an optical unit to image the scattering surface on a camera sensor, wherein the second measuring unit comprises a reflector arrangement that, in order to reflect the light beam (28', 28") onto the scattering surface, faces the first measuring unit when the measuring units are positioned on the respective mechanical elements, wherein the camera is directed on the side of the scattering surface facing the reflector arrangement , and wherein the evaluation unit is embodied to ascertain the point of incidence of the light beam reflected at the reflector arrangement on the scattering surface from the image data supplied by the camera and ascertain the position of the first mechanical element and of the second mechanical element with respect to one another therefrom.
A seat comprising a backrest whose rear side is provided with a tray table movable between a deployed position and a stowed position, - said tray table comprising a latch movable between an unlocked position and a locked position, characterized in that said tray table further comprises a locking system configured to hold the tray table in the stowed position further to a deformation of said seat during an impact, - the locking system comprising at least one locking element connected to the latch via a movement transmission device , - and in that , when the latch is in the locked position, an opening of the locking element is located opposite a fixed hook integral with a seat structure while being at a distance from this hook , so that in the event of a deformation of the seat , said hook enters the opening in the locking element in order to hold the tray table in the stowed position. - said tray table comprising a latch movable between an unlocked position and a locked position, characterized in that said tray table further comprises a locking system configured to hold the tray table in the stowed position further to a deformation of said seat during an impact, - the locking system comprising at least one locking element connected to the latch via a movement transmission device , - and in that , when the latch is in the locked position, an opening of the locking element is located opposite a fixed hook integral with a seat structure while being at a distance from this hook , so that in the event of a deformation of the seat , said hook enters the opening in the locking element in order to hold the tray table in the stowed position.
A vacuum pump housing, in particular for a turbomolecular pump, comprising at least two housing parts which are non-releasably joined together by means of a joining process, wherein a flange part for connecting the housing to a recipient is provided as one housing part and a main housing part for receiving at least one pump stage is provided as a further housing part and the flange part is joined together with the main housing part in a vacuum-tight and non-releasable manner by means of the joining process; wherein the flange part or the main housing part defines a channel in which, when the housing is assembled, a holding part for holding a permanent magnet bearing is arranged; and wherein the holding part is either formed in one piece with the flange part or is joined together with the flange part by means of the joining process; or wherein the holding part is joined together with the main housing part by means of the joining process.
Telechelic polymer of formula (I) Z 1 -POLY-Z 2 (I) in which the term "POLY" denotes a polymer chain comprising units of a 1,3-diene, ethylene units and cyclic units, 1,2-cyclohexane units of formula (II), Z 1 and Z 2 denoting a group containing a function, Z 1 and Z 2 being identical, which polymer has a macrostructure defined by a dispersity of less than 1.5 or by a number-average molar mass of greater than 10 000 g/mol. Z 1 and Z 2 denoting a group containing a function, Z 1 and Z 2 being identical, which polymer has a macrostructure defined by a dispersity of less than 1.5 or by a number-average molar mass of greater than 10 000 g/mol.
A biopsy marker , comprising a plurality of radial spokes , each of the plurality of radial spokes terminating at a distal orb , characterized in that the biopsy marker further comprises a central orb ; and wherein the plurality of radial spokes are connected at a proximal end to the central orb , wherein at least one of the plurality of radial spokes is selectively positionable in a condensed configuration and an expanded configuration.
A three-dimensional laminating and shaping apparatus (100; 200; 600) comprising: a shaping chamber (101; 201) in which a three-dimensional laminated and shaped object (111; 214) is shaped; a powder storage (102; 202) that stores a powder (121; 221) conveyed to said shaping chamber (101; 201); an intermediate powder storage (103; 203) that is provided between said shaping chamber (101; 201) and said powder storage (102; 202), is connected to said shaping chamber (101; 201) via a first valve (131; 231), is connected to said powder storage (102; 202) via a second valve (132; 232), and temporarily stores the powder (121; 221); characterized by a valve controller (104;204) that controls opening/closing of each of the first valve (131; 231) and the second valve (132; 232); and an atmosphere controller (105; 205) that controls an atmosphere in said intermediate powder storage (103; 203) and an atmosphere in said shaping chamber (101; 201) to be the same degree of vacuum. a shaping chamber (101; 201) in which a three-dimensional laminated and shaped object (111; 214) is shaped; a powder storage (102; 202) that stores a powder (121; 221) conveyed to said shaping chamber (101; 201); an intermediate powder storage (103; 203) that is provided between said shaping chamber (101; 201) and said powder storage (102; 202), is connected to said shaping chamber (101; 201) via a first valve (131; 231), is connected to said powder storage (102; 202) via a second valve (132; 232), and temporarily stores the powder (121; 221); characterized by a valve controller (104;204) that controls opening/closing of each of the first valve (131; 231) and the second valve (132; 232); and an atmosphere controller (105; 205) that controls an atmosphere in said intermediate powder storage (103; 203) and an atmosphere in said shaping chamber (101; 201) to be the same degree of vacuum.
A self-propelled driving simulator with a machine frame , which can be moved on a ground via three, preferably four or more, wheel assemblies , wherein the wheel assemblies each comprise at least one wheel , which can be moved on the ground and is arranged so as to be rotatable about a steering axis , wherein the machine frame is coupled to a control cabin , which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is enabled to be inclined relative to the machine frame about a pitch axis and/or a roll axis, and wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axis , wherein preferably multiple wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axis , characterized in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement , which in particular is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements such as for example a spring-damper arrangement and a wheel suspension for damping and/or attenuating uneven ground . wherein the wheel assemblies each comprise at least one wheel , which can be moved on the ground and is arranged so as to be rotatable about a steering axis , wherein the machine frame is coupled to a control cabin , which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is enabled to be inclined relative to the machine frame about a pitch axis and/or a roll axis, and wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axis , wherein preferably multiple wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axis , characterized in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement , which in particular is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements such as for example a spring-damper arrangement and a wheel suspension for damping and/or attenuating uneven ground .
A method of preparing a mono(C 4-32 hydrocarbyl) ester of a mono(C 1-4 alkyl)polyoxyalkylene glycol, the method comprising: contacting a C 1-4 alcohol and an alkylene oxide comprising ethylene oxide, propylene oxide, or a combination thereof under conditions effective to provide a first mono(C 1-4 alkyl)polyoxyalkylene glycol having a first average degree of polymerization of 1 to 6, or 1 to 4, or 2 to 6, or 2 to 4; contacting the first mono(C 1-4 alkyl)polyoxyalkylene glycol and the alkylene oxide under conditions effective to provide a second mono(C 1-4 alkyl)polyoxyalkylene glycol having a second average degree of polymerization that is greater than the first degree of polymerization; and contacting the second mono(C 1-4 alkyl)polyoxyalkylene glycol and a C 4-32 carboxylic acid to provide the mono(C 4-32 hydrocarbyl) ester of a mono(C 1-4 alkyl)polyoxyalkylene glycol; wherein contacting the C 1-4 alcohol and the alkylene oxide is in a first reactor at a first pressure of 0.5 to 2.5 megaPascal; contacting the first mono(C 1-4 alkyl)polyoxyalkylene glycol and the alkylene oxide is in a second reactor at a second pressure that is lower than the first pressure, and that is 0.2 to 0.7 megaPascal; and contacting the second mono(C 1-4 alkyl)polyoxyalkylene glycol and the C 4-32 carboxylic acid is in a third reactor. contacting a C 1-4 alcohol and an alkylene oxide comprising ethylene oxide, propylene oxide, or a combination thereof under conditions effective to provide a first mono(C 1-4 alkyl)polyoxyalkylene glycol having a first average degree of polymerization of 1 to 6, or 1 to 4, or 2 to 6, or 2 to 4; contacting the first mono(C 1-4 alkyl)polyoxyalkylene glycol and the alkylene oxide under conditions effective to provide a second mono(C 1-4 alkyl)polyoxyalkylene glycol having a second average degree of polymerization that is greater than the first degree of polymerization; and contacting the second mono(C 1-4 alkyl)polyoxyalkylene glycol and a C 4-32 carboxylic acid to provide the mono(C 4-32 hydrocarbyl) ester of a mono(C 1-4 alkyl)polyoxyalkylene glycol; wherein contacting the C 1-4 alcohol and the alkylene oxide is in a first reactor at a first pressure of 0.5 to 2.5 megaPascal; contacting the first mono(C 1-4 alkyl)polyoxyalkylene glycol and the alkylene oxide is in a second reactor at a second pressure that is lower than the first pressure, and that is 0.2 to 0.7 megaPascal; and contacting the second mono(C 1-4 alkyl)polyoxyalkylene glycol and the C 4-32 carboxylic acid is in a third reactor.
A method performed by a wireless communication device to enable the reception of a beam sweep transmission, characterized in that the method comprises: - obtaining (S1) information enabling said wireless communication device to determine whether it is stationary, or essentially stationary; - acquiring (S2) configuration information comprising information about the starting time for the beam sweep transmission; - determining (S3) a time when to initiate a reception of the beam sweep transmission based at least partially on the obtained information and the acquired configuration information, thereby allowing said wireless communication device to enter, or remain in, a first activity state until said determined time, wherein the first activity state is at least one of an idle state, a dormant state, an energy saving state and a non-receiving state; and - entering (S4), at the determined time, a second activity state that is a receiving state whereby said wireless communication device is capable to receive the beam sweep. - obtaining (S1) information enabling said wireless communication device to determine whether it is stationary, or essentially stationary; - acquiring (S2) configuration information comprising information about the starting time for the beam sweep transmission; - determining (S3) a time when to initiate a reception of the beam sweep transmission based at least partially on the obtained information and the acquired configuration information, thereby allowing said wireless communication device to enter, or remain in, a first activity state until said determined time, wherein the first activity state is at least one of an idle state, a dormant state, an energy saving state and a non-receiving state; and - entering (S4), at the determined time, a second activity state that is a receiving state whereby said wireless communication device is capable to receive the beam sweep.
Plug module for inserting into a metal retaining frame of a modular plug connector, wherein the plug module has an overvoltage protection circuit such that the plug module is an overvoltage protection module , characterized in that the plug module has at least one contact spring , wherein the at least one contact spring serves for electrically contacting the metal retaining frame and for conducting away overvoltages at the metal retaining frame , and wherein the overvoltage protection circuit has an earth connection which is connected electrically conductively to the contact spring , wherein the plug module has a printed circuit board on which the overvoltage protection circuit is arranged, wherein the overvoltage protection circuit has at least one diode and at least one gas arrester , wherein the plug module has a module housing made from an electrically insulating material which encloses the printed circuit board in the mounted state, wherein in the mounted state the module housing has at least one window opening from which one or more contact arms of the at least one contact spring project for earth contacting the retaining frame .
A Heusler alloy in which a portion of elements of an alloy is represented by the general expression (Co 1-a X1 a ) 2 (Fe 1-b Y1 b ) α Z β , characterized in that , Z is one or more elements selected from the group consisting of Mn, Cr, Al, Si, Ga, Ge, and Sn, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and wherein X1 is a substitution element, which is different from the Z element and has a smaller magnetic moment than Co, Y1 is one or more second substitution elements selected from the group consisting of elements having a smaller magnetic moment than Fe, and 0 < a < 0.5 and b ≥ 0 are satisfied. Z is one or more elements selected from the group consisting of Mn, Cr, Al, Si, Ga, Ge, and Sn, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and wherein X1 is a substitution element, which is different from the Z element and has a smaller magnetic moment than Co, Y1 is one or more second substitution elements selected from the group consisting of elements having a smaller magnetic moment than Fe, and 0 < a < 0.5 and b ≥ 0 are satisfied.
A method for hydrogen enrichment of natural gas, comprising the steps of: - feeding natural gas (G_IN); - feeding an aqueous flow (W_IN); - mixing said flow of natural gas (G_IN) with said aqueous flow (W_IN), - thermally conditioning (10; 10*; 10**; 10***; HE, TH_F; BR) the mixed flow, which comprises said flow of natural gas (G_IN) and said aqueous flow (W_IN), until reaching supercritical conditions; - initiating a reforming reaction of the mixed flow in supercritical conditions; and - separating, in the reforming-reaction product reaction, the enriched natural gas from an aqueous fraction and from a carbon-dioxide fraction. - feeding natural gas (G_IN); - feeding an aqueous flow (W_IN); - mixing said flow of natural gas (G_IN) with said aqueous flow (W_IN), - thermally conditioning (10; 10*; 10**; 10***; HE, TH_F; BR) the mixed flow, which comprises said flow of natural gas (G_IN) and said aqueous flow (W_IN), until reaching supercritical conditions; - initiating a reforming reaction of the mixed flow in supercritical conditions; and - separating, in the reforming-reaction product reaction, the enriched natural gas from an aqueous fraction and from a carbon-dioxide fraction.