mhurhangee/ep-ind-claims huggingface dataset:
Switching power supply comprising a switching cell comprising: - a single inductive element with two terminals (BC1, BC2); - a plurality of individually selectable outputs (OUT1j, OUT2i), - two switches (IT1, IT2) respectively connected between a supply voltage and one of the terminals of the inductive element, and between the ground and one of the terminals of the inductive element, characterized in that the two terminals of the inductive element are respectively connected to at least two of the individually selectable outputs, and in that the power supply further comprises control means adapted for simultaneously selecting said at least two of the individually selectable outputs. - a single inductive element with two terminals (BC1, BC2); - a plurality of individually selectable outputs (OUT1j, OUT2i), - two switches (IT1, IT2) respectively connected between a supply voltage and one of the terminals of the inductive element, and between the ground and one of the terminals of the inductive element,
A semiconductor circuit comprising: a first current-voltage converter circuit comprising a first p-channel transistor; and a cascode current mirror circuit comprising second to ninth p-channel transistors (10 - 17), wherein gates of the first to fifth p-channel transistors (60, 10 - 13) and a drain of the first p-channel transistor are electrically connected to a third node, wherein a drain of the third p-channel transistor is electrically connected to a first node, wherein a drain of the fourth p-channel transistor is electrically connected to a second node, wherein a drain of the sixth p-channel transistor is electrically connected to a source of the second p-channel transistor, wherein a drain of the seventh p-channel transistor is electrically connected to a source of the third p-channel transistor, wherein a drain of the eighth p-channel transistor is electrically connected to a source of the fourth p-channel transistor, wherein a drain of the ninth p-channel transistor is electrically connected to a source of the fifth p-channel transistor, wherein sources of the sixth to ninth p-channel transistors (14 - 17) are electrically connected to a high power supply potential line; and wherein a reference current is output from a drain of the fifth p-channel transistor; characterized in that a drain of the second p-channel transistor and gates of the sixth to ninth p-channel transistors (14 - 17) are electrically connected to a fourth node, and a source of the first p-channel transistor is electrically connected to the high power supply potential line. a first current-voltage converter circuit comprising a first p-channel transistor; and a cascode current mirror circuit comprising second to ninth p-channel transistors (10 - 17), wherein gates of the first to fifth p-channel transistors (60, 10 - 13) and a drain of the first p-channel transistor are electrically connected to a third node, wherein a drain of the third p-channel transistor is electrically connected to a first node, wherein a drain of the fourth p-channel transistor is electrically connected to a second node, wherein a drain of the sixth p-channel transistor is electrically connected to a source of the second p-channel transistor, wherein a drain of the seventh p-channel transistor is electrically connected to a source of the third p-channel transistor, wherein a drain of the eighth p-channel transistor is electrically connected to a source of the fourth p-channel transistor, wherein a drain of the ninth p-channel transistor is electrically connected to a source of the fifth p-channel transistor, wherein sources of the sixth to ninth p-channel transistors (14 - 17) are electrically connected to a high power supply potential line; and wherein a reference current is output from a drain of the fifth p-channel transistor; characterized in that a drain of the second p-channel transistor and gates of the sixth to ninth p-channel transistors (14 - 17) are electrically connected to a fourth node, and a source of the first p-channel transistor is electrically connected to the high power supply potential line.
A kit of components from which may be assembled a modular prosthetic socket for a residual limb of a lower extremity or upper extremity of an individual person, the residual limb comprising individual dimensions and anatomical contours, and the prosthetic socket comprising dimensions and contours that substantially fit the dimensions and contours of the residual limb, the kit comprising three groups of socket components wherein one or more of the socket component groups comprise modular components, said modular components comprising variation with respect to dimensions and/or contours and common connecting features that permit assembly of the components from the three groups of components together to form the prosthetic socket, the prosthetic socket when assembled comprising components from each of three groups of socket components: a. one or more struts arranged longitudinally with respect to the residual limb, each strut having a distal end and a proximal end; b. one or more proximal brim members (1, 2, 13) arranged proximally with respect to the one or more struts and connected directly or indirectly thereto; and c. one or more distal socket members disposed at the distal base of the prosthetic socket. a. one or more struts arranged longitudinally with respect to the residual limb, each strut having a distal end and a proximal end; b. one or more proximal brim members (1, 2, 13) arranged proximally with respect to the one or more struts and connected directly or indirectly thereto; and c. one or more distal socket members disposed at the distal base of the prosthetic socket.
A compound selected from: N -(2-[2-dimethylaminoethyl-methylamino]-5-{[4-(1 H- indol-3-yl)pyrimidin-2-yl]amino}-4-methoxyphenyl)-prop-2-enamide: and N- (4-methoxy-5-{[4-(1-methylindol-3-yl)pyrimidin-2-yl]amino}-2-[methyl-(2-methylaminoethyl)amino]phenyl)prop-2-enamide: or a pharmaceutically acceptable salt thereof. N -(2-[2-dimethylaminoethyl-methylamino]-5-{[4-(1 H- indol-3-yl)pyrimidin-2-yl]amino}-4-methoxyphenyl)-prop-2-enamide: and N- (4-methoxy-5-{[4-(1-methylindol-3-yl)pyrimidin-2-yl]amino}-2-[methyl-(2-methylaminoethyl)amino]phenyl)prop-2-enamide: or a pharmaceutically acceptable salt thereof.
A modular safety switching apparatus for controlling a plurality of electrical devices comprising: a first safety switching module comprising a first switching signal output for controlling a first electrical device; a second safety switching module comprising a second switching signal output for controlling a second electrical device; and a connection element, which is configured to electrically connect the first safety switching module to the second safety switching module; wherein the second safety switching module with respect to signal transmission is downstream of the first safety switching module, and wherein the first safety switching module can be deactivated in response to receiving a first control signal and is configured to feed a second control signal to the second safety switching module in order to deactivate the second safety switching module, wherein the first safety switching module is configured to deactivate the first electrical device connected to the first switching signal output in response to receiving the first control signal, and wherein the first safety switching module is further configured to deactivate the second switching signal output of the second safety switching module in response to receiving the first control signal, characterized in that the first safety switching module is configured to feed a single-channel active control signal (AKTIV) to the first switching signal output of the first safety switching module and via the connection element to the second safety switching module. a first safety switching module comprising a first switching signal output for controlling a first electrical device; a second safety switching module comprising a second switching signal output for controlling a second electrical device; and a connection element, which is configured to electrically connect the first safety switching module to the second safety switching module; wherein the second safety switching module with respect to signal transmission is downstream of the first safety switching module, and wherein the first safety switching module can be deactivated in response to receiving a first control signal and is configured to feed a second control signal to the second safety switching module in order to deactivate the second safety switching module, wherein the first safety switching module is configured to deactivate the first electrical device connected to the first switching signal output in response to receiving the first control signal, and wherein the first safety switching module is further configured to deactivate the second switching signal output of the second safety switching module in response to receiving the first control signal, characterized in that the first safety switching module is configured to feed a single-channel active control signal (AKTIV) to the first switching signal output of the first safety switching module and via the connection element to the second safety switching module.
Method for obtaining a preparation enriched in engineered T cells with exogenous immune receptors, comprising the steps of: a) providing a mixture of T cells comprising - engineered T cells with exogenous immune receptors comprising a murinized constant region, wherein expression of endogenous alpha beta T cell receptors is suppressed; and - non-engineered T cells with endogenous alpha beta T cell receptors, wherein step a) comprises the steps of: i. providing T cells; ii. providing a nucleic acid or nucleic acids encoding an exogenous immune receptor; iii. introducing the nucleic acid or nucleic acids into the T cells to thereby provide a mixture of T cells comprising engineered T cells with exogenous immune receptors and non-engineered T cells with endogenous alpha beta T cell receptors; b) contacting the mixture of T cells with an antibody that specifically binds to the endogenous alpha beta T cell receptor, to allow formation of an antibody-non-engineered T cell complex; c) removing the antibody-non-engineered T cell complex from the mixture of T cells to thereby obtain a preparation enriched in engineered T cells with exogenous immune receptors. a) providing a mixture of T cells comprising - engineered T cells with exogenous immune receptors comprising a murinized constant region, wherein expression of endogenous alpha beta T cell receptors is suppressed; and - non-engineered T cells with endogenous alpha beta T cell receptors, wherein step a) comprises the steps of: i. providing T cells; ii. providing a nucleic acid or nucleic acids encoding an exogenous immune receptor; iii. introducing the nucleic acid or nucleic acids into the T cells to thereby provide a mixture of T cells comprising engineered T cells with exogenous immune receptors and non-engineered T cells with endogenous alpha beta T cell receptors; - engineered T cells with exogenous immune receptors comprising a murinized constant region, wherein expression of endogenous alpha beta T cell receptors is suppressed; and - non-engineered T cells with endogenous alpha beta T cell receptors, wherein step a) comprises the steps of: i. providing T cells; ii. providing a nucleic acid or nucleic acids encoding an exogenous immune receptor; iii. introducing the nucleic acid or nucleic acids into the T cells to thereby provide a mixture of T cells comprising engineered T cells with exogenous immune receptors and non-engineered T cells with endogenous alpha beta T cell receptors; i. providing T cells; ii. providing a nucleic acid or nucleic acids encoding an exogenous immune receptor; iii. introducing the nucleic acid or nucleic acids into the T cells to thereby provide a mixture of T cells comprising engineered T cells with exogenous immune receptors and non-engineered T cells with endogenous alpha beta T cell receptors; b) contacting the mixture of T cells with an antibody that specifically binds to the endogenous alpha beta T cell receptor, to allow formation of an antibody-non-engineered T cell complex; c) removing the antibody-non-engineered T cell complex from the mixture of T cells to thereby obtain a preparation enriched in engineered T cells with exogenous immune receptors.
A grid-tied photovoltaic power generation system, comprising: a photovoltaic system tied to the grid and operated; and a controller started by electric power supplied from the grid to control an operation of the photovoltaic system, a switching mode power supply connected to the grid and configured to convert the electric power supplied from the grid into a starting electric power; and a control unit started by the starting electric power to control an operation of the photovoltaic system, characterized in that: the controller comprises a power maintaining unit configured as a capacitor to maintain electric power supply for the controller during a corresponding operation time of the photovoltaic system when a fault is generated in the grid such that electric power supply from the grid is stopped; wherein the controller is configured to determine whether to continue or stop operation of the photovoltaic system on the basis of a status of the grid and the photovoltaic system during the corresponding operation time, and controls continuation or stoppage of the operation of the photovoltaic system according to the determination result. a photovoltaic system tied to the grid and operated; and a controller started by electric power supplied from the grid to control an operation of the photovoltaic system, a switching mode power supply connected to the grid and configured to convert the electric power supplied from the grid into a starting electric power; and a control unit started by the starting electric power to control an operation of the photovoltaic system, characterized in that: the controller comprises a power maintaining unit configured as a capacitor to maintain electric power supply for the controller during a corresponding operation time of the photovoltaic system when a fault is generated in the grid such that electric power supply from the grid is stopped; wherein the controller is configured to determine whether to continue or stop operation of the photovoltaic system on the basis of a status of the grid and the photovoltaic system during the corresponding operation time, and controls continuation or stoppage of the operation of the photovoltaic system according to the determination result. the controller comprises a power maintaining unit configured as a capacitor to maintain electric power supply for the controller during a corresponding operation time of the photovoltaic system when a fault is generated in the grid such that electric power supply from the grid is stopped; wherein the controller is configured to determine whether to continue or stop operation of the photovoltaic system on the basis of a status of the grid and the photovoltaic system during the corresponding operation time, and controls continuation or stoppage of the operation of the photovoltaic system according to the determination result.
A single unit in one piece comprising components for making up smart glasses, to be positioned in a pair of glasses, the single unit in one piece comprises at least one central processing unit (cpu), at least one sensor and at least one battery provided on a printed circuit board (pcb), the single unit and the pcb reach at least from a first temple via a frame at least past a first lens positioned closest to the first temple in the frame up to a second lens positioned closest to a second temple, and preferably past also said second lens, and preferably further into said second temple, wherein the single unit in one piece comprises at least one hinge, which, when positioned in a pair of glasses, will provide at least a hinge between the first temple and the frame, characterised in that the pcb is in one piece and the single unit has a hard shell, which is attachable in the glasses, in which electronic components are embedded in elastic material and exchangeably kept in place in the hard shell by means of form fittings.
Pipe (1, 3) having a pipe element for conveying a medium in a flow direction, having a flange element for connecting the pipe element to a connection partner, wherein the pipe element has a pipe body with a media passage opening for conveying the medium in the flow direction, wherein the flange element has a flange body with a media passage opening for conveying the medium in the flow direction, wherein the flange element is arranged at one end of the pipe element in such a way that the media passage openings (11, 31) at least essentially overlap, and having a sensor element which is arranged in the flange body such that at least a portion of the sensor element can be in contact with the medium, wherein the flange element has a sensor passage opening which connects the media passage opening of the flange element to the environment of the flange element, wherein at least a portion of the sensor element is arranged in the sensor passage opening, characterized in that the flange element has a pulsation damping chamber which is configured as a recess inside the flange body open towards the media passage opening, wherein the pulsation damping chamber is arranged directly opposite the sensor passage opening. having a pipe element for conveying a medium in a flow direction, having a flange element for connecting the pipe element to a connection partner, wherein the pipe element has a pipe body with a media passage opening for conveying the medium in the flow direction, wherein the flange element has a flange body with a media passage opening for conveying the medium in the flow direction, wherein the flange element is arranged at one end of the pipe element in such a way that the media passage openings (11, 31) at least essentially overlap, and having a sensor element which is arranged in the flange body such that at least a portion of the sensor element can be in contact with the medium, wherein the flange element has a sensor passage opening which connects the media passage opening of the flange element to the environment of the flange element, wherein at least a portion of the sensor element is arranged in the sensor passage opening, characterized in that the flange element has a pulsation damping chamber which is configured as a recess inside the flange body open towards the media passage opening, wherein the pulsation damping chamber is arranged directly opposite the sensor passage opening.
A connection box (100, 100'') for optical waveguides, particularly in the form of a flush-mounted box, containing: a) a cable reservoir for storing different excess lengths of an optical waveguide connection cable, b) a splice cassette comprising a splice receptacle for one or more splices and comprising a fibre receptacle (320a, 320b, 320c, 320d) for accommodating different excess lengths on individual optical fibres and/or for accommodating unused optical fibres, c) a holder (400a, 400b) for accommodating a connection device (500a, 500b) for connecting an optical conductor to the connection box,whereby cable reservoir and splice cassette being present in mutually spatially separate regions, characterized in that the cable reservoir is mounted in a movable manner with respect to the splice cassette, so that the splice cassette can be closed using the cable reservoir. a) a cable reservoir for storing different excess lengths of an optical waveguide connection cable, b) a splice cassette comprising a splice receptacle for one or more splices and comprising a fibre receptacle (320a, 320b, 320c, 320d) for accommodating different excess lengths on individual optical fibres and/or for accommodating unused optical fibres, c) a holder (400a, 400b) for accommodating a connection device (500a, 500b) for connecting an optical conductor to the connection box,whereby
A belt separator system comprising: a first electrode and a second electrode arranged on opposite sides of a longitudinal centerline and configured to provide an electric field between the first and second electrodes; a first roller disposed at a first end of the system; a second roller disposed at a second end of the system; a continuous belt disposed between the first and second electrodes and supported by the first roller and the second roller; a separation zone defined by and between the continuous belt and edge walls of the separation zone; and characterized by a plurality of gas nozzles positioned at periodic locations along one or more of the edge walls to deliver gas to the separation zone and a means to control conditions of the gas entering the separation zone. a first electrode and a second electrode arranged on opposite sides of a longitudinal centerline and configured to provide an electric field between the first and second electrodes; a first roller disposed at a first end of the system; a second roller disposed at a second end of the system; a continuous belt disposed between the first and second electrodes and supported by the first roller and the second roller; a separation zone defined by and between the continuous belt and edge walls of the separation zone; and characterized by a plurality of gas nozzles positioned at periodic locations along one or more of the edge walls to deliver gas to the separation zone and a means to control conditions of the gas entering the separation zone.
A method of controlling a lighting and sound system comprising a controller, a plurality of lighting and sound devices and a controlling unit that includes a switch having an on position and an off position, wherein each lighting and sound device includes a light, a loudspeaker and a microphone, the method comprising: receiving an audio instruction from a first user of the system at the microphone of a first device of the plurality of devices; processing the received audio instruction; transmitting the instruction from the first device to the controller; executing an action based upon the processed audio instruction; communicating an indication of a position of the switch and/or a dial on the controlling unit from the controlling unit to the controller; and adjusting an optical output of the light of one or more of the lighting and sound devices based on the indication of the position of the switch and/or dial; and/or adjusting one or more audio parameters of the loudspeaker of one or more of the lighting and sound devices based on the indication of the position of the switch and/or dial, wherein the controlling unit is configured to facilitate supply of power to one or more of the lighting and sound devices when the switch is in the on position and when the switch is in the off position. receiving an audio instruction from a first user of the system at the microphone of a first device of the plurality of devices; processing the received audio instruction; transmitting the instruction from the first device to the controller; executing an action based upon the processed audio instruction; communicating an indication of a position of the switch and/or a dial on the controlling unit from the controlling unit to the controller; and adjusting an optical output of the light of one or more of the lighting and sound devices based on the indication of the position of the switch and/or dial; and/or adjusting one or more audio parameters of the loudspeaker of one or more of the lighting and sound devices based on the indication of the position of the switch and/or dial, wherein the controlling unit is configured to facilitate supply of power to one or more of the lighting and sound devices when the switch is in the on position and when the switch is in the off position.