mhurhangee/ep-ind-claims huggingface dataset:
A stack of several electrochemical cells (1, 101), the electrochemical cells (1, 101) being stacked on top of one another in a stacking direction, the stack comprising at least: - a first electrochemical cell, - a second electrochemical cell, and - an intercalary plate, each cell (1, 101) including an upper frame housing a first electrode (20, 120) and a lower frame housing a second electrode (30, 130), the first electrode (20, 120) and the second electrode (30, 130) being separated from one another by a membrane, the first electrode (20, 120) being in contact with the membrane by its lower face (21, 121) and the second electrode (30, 130) being in contact with the membrane by its upper face (33, 133), the second electrode of the first electrochemical cell and the first electrode of the second electrochemical cell being separated by the intercalary plate, characterized in that the stack includes an intercalary frame arranged on the periphery of the intercalary plate, the lower frame of the first electrochemical cell and the upper frame of the second electrochemical cell being separated at least in part by the intercalary frame, the lower frame of the first electrochemical cell facing the intercalary frame by its lower face and the upper frame of the second electrochemical cell facing the intercalary frame by its upper face, and in that the upper frame and the lower frame of each electrochemical cell (1, 101) are separated from one another by the membrane, each upper or lower frame comprising a proximal portion (14, 54) close to the membrane and a distal portion (12, 52) distant from the membrane, each upper or lower frame comprising a supply channel (65, 66) for supplying an electrochemical fluid and an inlet channel (60, 61) for a fluid supplying a lateral face of the electrode (20, 30), the inlet channel (60, 61) comprising an outlet orifice (62, 63) in the proximal portion (14, 54) opening onto a lateral face of the electrode (20, 30), each upper or lower frame comprising a discharge channel (85, 86) for an electrochemical fluid and an outlet channel (80, 81) for the fluid via a lateral face (20, 30) of the electrode, the outlet channel (80, 81) comprising an inlet orifice (82, 83) in the proximal portion opening onto a lateral face (14, 54) of the electrode (20, 30), at least one, and preferably all, from among the inlet channel (60, 61) and the outlet channel (80, 81) comprising an inlet (64, 67), respectively outlet (84, 87) orifice, opening onto the supply (65, 66), respectively discharge (85, 86) channel, respectively, in the distal portion (12, 52) of the upper or lower frame. - a first electrochemical cell, - a second electrochemical cell, and - an intercalary plate,
A terminal comprising: a receiving section, configured to receive a reference signal on each of burst transmissions from a base station; and a control section, configured to perform Channel State Information, CSI, measurement using the reference signal in each burst transmission, wherein the terminal is configured to send a CSI measurement report to the base station that illustrates the measurement results, without measuring an average measurement value across a plurality of burst transmissions. a receiving section, configured to receive a reference signal on each of burst transmissions from a base station; and a control section, configured to perform Channel State Information, CSI, measurement using the reference signal in each burst transmission, wherein the terminal is configured to send a CSI measurement report to the base station that illustrates the measurement results, without measuring an average measurement value across a plurality of burst transmissions.
A process of recovering propylene and N-butyraldehyde from a purge gas, comprising: forming a first product stream comprising N-butyraldehyde by reacting propylene and a first synthesis gas in the presence of a first catalyst in a first reactor and a second reactor; withdrawing a mixed stream comprising N-butyraldehyde and unreacted propylene from the second reactor; separating a liquid stream and purge gas comprising N-butyraldehyde and unreacted propylene from the mixed stream and recycling the liquid stream to the second reactor; reacting the purge gas and a second synthesis gas in the presence of a second catalyst in a purge gas reactor to form a second product stream comprising N-butyraldehyde; withdrawing the second product stream comprising N-butyraldehyde from the purge gas reactor and combining the second product stream comprising N-butyraldehyde and the first product stream comprising N-butyraldehyde; and withdrawing a stream comprising N-butyraldehyde from the purge gas reactor and recovering N-butyraldehyde from the stream comprising N-butyraldehyde product stream using a vent condenser. forming a first product stream comprising N-butyraldehyde by reacting propylene and a first synthesis gas in the presence of a first catalyst in a first reactor and a second reactor; withdrawing a mixed stream comprising N-butyraldehyde and unreacted propylene from the second reactor; separating a liquid stream and purge gas comprising N-butyraldehyde and unreacted propylene from the mixed stream and recycling the liquid stream to the second reactor; reacting the purge gas and a second synthesis gas in the presence of a second catalyst in a purge gas reactor to form a second product stream comprising N-butyraldehyde; withdrawing the second product stream comprising N-butyraldehyde from the purge gas reactor and combining the second product stream comprising N-butyraldehyde and the first product stream comprising N-butyraldehyde; and withdrawing a stream comprising N-butyraldehyde from the purge gas reactor and recovering N-butyraldehyde from the stream comprising N-butyraldehyde product stream using a vent condenser.
Small detection plate, comprising a chip module made of a first carrier with a chip and an inductive coupling loop connected to the chip, and comprising an antenna module made of a second carrier and an antenna conductor, wherein the chip module is arranged in or on the antenna module and the coupling loop is coupled inductively to the antenna conductor, wherein the antenna conductor is an open antenna loop and consists of a wire which is implemented as at least one turn and is connected mechanically to the second carrier by textile embroidery technology or wire laying technology, wherein adjacently located turns and the ends of the wire are insulated relative to each other, and the ends of the wire form a capacitance per unit length.
Method for erecting an offshore structure in the form of a jacket foundation, wherein the jacket has at least four supporting legs (2a, 2b, 2c, 2d) which are anchored on foundation piles introduced into the seabed, wherein the jacket is first of all set down on the foundation piles with load transfer into the seabed and then the supporting legs (2a, 2b, 2c, 2d) are fixed in the foundation piles with a curable casting compound, wherein the jacket is levelled before and/or during the casting operation and wherein the jacket is balanced out in such a way that, before the curing of the casting compound, load transfer into the seabed is effected essentially via three supporting legs (2b, 2c, 2d) while a fourth supporting leg is relieved of load.
A panel radiator (1, 34, 44, 51) having a front heating panel (2, 41, 46, 58) and at least one rear heating panel (3, 47, 59), having a flow connection (25, 54) on an underside of the panel radiator (1, 34, 44, 51) for connecting the front heating panel (2, 41, 46, 58) to a ground-side heating-medium flow, having at least one heating-medium pipe (7, 43, 45) connected to the front heating panel (2, 41, 46, 58) at an upper side of the panel radiator (1, 34, 44, 51), and having a valve support (13, 39, 49), which has a valve connector for a control valve, wherein, during heating operation of the panel radiator (1, 34, 44, 51), the heating medium is conveyed out of the front heating panel (2, 41, 46, 58) and only through the valve support (13, 39, 49) and the control valve into the at least one rear heating panel (3, 47, 59), characterised in that the valve support (13, 39, 49) is arranged below the heating-medium pipe (7, 43, 45).
System for monitoring the service life of rockets, comprising rockets and at least one companion specimen, characterized in that the at least one companion specimen of each propellant batch is produced, in addition to the rockets, as an independent construction, which is exposed to the same environmental parameters and contains propellant from the same propellant batch as the rockets, wherein the companion specimen has an engine combustion chamber which is filled with a propellant charge from the batch and corresponds to the engine combustion chamber of the rockets which are filled with a propellant charge from the batch, wherein the propellant charge of the companion specimen and the propellant charge of the rockets adhere to the combustion chamber wall and the propellant charge of the companion specimen is provided on the surface adhering to the combustion chamber wall with stress sensors (12 to 15) which are coupled to at least one data acquisition device of the companion specimen.
Method for producing a single-phase layer from intermetallic compounds on a substrate, comprising a) providing a substrate, b) positioning the substrate in a process chamber of a DC magnetron sputtering system and evacuating the process chamber, wherein in each case at least one cathode is arranged in the process chamber, with a surface made of an intermetallic compound pointing towards the substrate, c) simultaneous transferring of material components out of the cathodes into a plasma, with the use of a noble gas as a sputtering gas, d) simultaneous depositing of the material components from the plasma to an intermetallic layer with a single-phase structure on the substrate, and e) removing the substrate with the deposited intermetallic layer out of the process chamber, wherein f) the intermetallic compound of the at least one cathode is present as a single phase, and specifically also as far as into the atomic range, g) the single-phase layer can also contain further possible phases, such as impurities, but which do not consist of the element combinations of the intermetallic compound, h) the intermetallic compound is an intermetallic compound of the type Ga x Pd y or Al 13 Fe 4, and the intermetallic layer is an intermetallic layer of the type Ga x Pd y or Al 13 Fe 4, and i) the single-phase nature of the deposited intermetallic layer can be testes by means of X-ray structure (diffraction) analysis, wherein the phase composition is reproduced in the diffractograms, wherein the single-phase nature can be proved by the exclusive occurrence of the characteristic reflexes in the diffractogram. a) providing a substrate, b) positioning the substrate in a process chamber of a DC magnetron sputtering system and evacuating the process chamber, wherein in each case at least one cathode is arranged in the process chamber, with a surface made of an intermetallic compound pointing towards the substrate, c) simultaneous transferring of material components out of the cathodes into a plasma, with the use of a noble gas as a sputtering gas, d) simultaneous depositing of the material components from the plasma to an intermetallic layer with a single-phase structure on the substrate, and e) removing the substrate with the deposited intermetallic layer out of the process chamber, wherein f) the intermetallic compound of the at least one cathode is present as a single phase, and specifically also as far as into the atomic range, g) the single-phase layer can also contain further possible phases, such as impurities, but which do not consist of the element combinations of the intermetallic compound, h) the intermetallic compound is an intermetallic compound of the type Ga x Pd y or Al 13 Fe 4, and the intermetallic layer is an intermetallic layer of the type Ga x Pd y or Al 13 Fe 4, and i) the single-phase nature of the deposited intermetallic layer can be testes by means of X-ray structure (diffraction) analysis, wherein the phase composition is reproduced in the diffractograms, wherein the single-phase nature can be proved by the exclusive occurrence of the characteristic reflexes in the diffractogram.
A method of providing a user interface for a mobile device, comprising: displaying one or more graphical user interface elements on a touch-screen; receiving a first touch on the touch-screen; entering, in response to receipt of the first touch and while continuing to receive the first touch, a first state that enables an audio cue that indicates a function that can be performed by the graphical user interface element; receiving, while in the first state, an indication that the first touch is at the location of the graphical user interface element; based at least on the indication that the first touch is at the location of the graphical user interface element, providing the audio cue that indicates the information associated with the graphical user interface element; receiving, while in the first state, a second touch on the touch-screen while continuing to receive the first touch; and entering, in response to receipt of the second touch, a second state that includes activating the associated graphical user interface element, wherein the second state allows the graphical user interface element to be dragged on the touch screen in response to movement of the first touch along the touch screen while in the second state. displaying one or more graphical user interface elements on a touch-screen; receiving a first touch on the touch-screen; entering, in response to receipt of the first touch and while continuing to receive the first touch, a first state that enables an audio cue that indicates a function that can be performed by the graphical user interface element; receiving, while in the first state, an indication that the first touch is at the location of the graphical user interface element; based at least on the indication that the first touch is at the location of the graphical user interface element, providing the audio cue that indicates the information associated with the graphical user interface element; receiving, while in the first state, a second touch on the touch-screen while continuing to receive the first touch; and entering, in response to receipt of the second touch, a second state that includes activating the associated graphical user interface element, wherein the second state allows the graphical user interface element to be dragged on the touch screen in response to movement of the first touch along the touch screen while in the second state.
A surgical suture management device, comprising: a suture loop management card configured to hold open a collapsible loop of suture, the suture management card having: a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture; and a suture having first and second free limbs (54, 55); characterized in that: the suture has a sliding knot formed therein, the sliding knot having on one side thereof a collapsible loop and on the other side thereof the first and the second free limbs (54, 55), wherein the collapsible loop is held open by the proximal end of the suture management card, and wherein the first and second free limbs (54, 55) are disposed in the plurality of adjacent slots. a suture loop management card configured to hold open a collapsible loop of suture, the suture management card having: a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture; and a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture; and a suture having first and second free limbs (54, 55); characterized in that: the suture has a sliding knot formed therein, the sliding knot having on one side thereof a collapsible loop and on the other side thereof the first and the second free limbs (54, 55), wherein the collapsible loop is held open by the proximal end of the suture management card, and wherein the first and second free limbs (54, 55) are disposed in the plurality of adjacent slots. the suture has a sliding knot formed therein, the sliding knot having on one side thereof a collapsible loop and on the other side thereof the first and the second free limbs (54, 55), wherein the collapsible loop is held open by the proximal end of the suture management card, and wherein the first and second free limbs (54, 55) are disposed in the plurality of adjacent slots.
A cleaning robot system (200,400,700) comprising: a network data bridge comprising: a broadband network interface connectible to an internet protocol network and carrying communications transferred in compliance with an internet protocol; a wireless command interface connectible to a wireless command protocol network and carrying communications transferred under a command protocol; and a data bridge component adapted to extract serial commands received via the broadband network interface from the internet protocol and to apply the command protocol thereto, and to broadcast the serial commands via the narrowband wireless interface; and a mobile cleaning robot comprising: a drive system that moves the robot about an environment; and a wireless command communication component that receives the serial commands transmitted from the network data bridge, characterized in that a wireless update function is provided by the network data bridge to update a firmware or other on-board software of the mobile robot, wherein the firmware or other on-board software is customized based on robot sensor data. a network data bridge comprising: a broadband network interface connectible to an internet protocol network and carrying communications transferred in compliance with an internet protocol; a wireless command interface connectible to a wireless command protocol network and carrying communications transferred under a command protocol; and a data bridge component adapted to extract serial commands received via the broadband network interface from the internet protocol and to apply the command protocol thereto, and to broadcast the serial commands via the narrowband wireless interface; and a broadband network interface connectible to an internet protocol network and carrying communications transferred in compliance with an internet protocol; a wireless command interface connectible to a wireless command protocol network and carrying communications transferred under a command protocol; and a data bridge component adapted to extract serial commands received via the broadband network interface from the internet protocol and to apply the command protocol thereto, and to broadcast the serial commands via the narrowband wireless interface; and a mobile cleaning robot comprising: a drive system that moves the robot about an environment; and a wireless command communication component that receives the serial commands transmitted from the network data bridge, a drive system that moves the robot about an environment; and a wireless command communication component that receives the serial commands transmitted from the network data bridge, characterized in that a wireless update function is provided by the network data bridge to update a firmware or other on-board software of the mobile robot, wherein the firmware or other on-board software is customized based on robot sensor data.
A method of communicating an application-layer message by a source node over a mesh network, the method comprising, by an application-layer translation application of a dual-stack router: receiving (1502, 1602), from the source node using a first network stack that implements a first network protocol, the application-layer message that includes a source address and a destination address; mapping (1504, 1604) the source address to an Internet Protocol Version 6, IPv6, source address; mapping (1506, 1606) the destination address to an IPv6 destination address; transmitting (1508, 1608) the application-layer message by the source node to a destination node in the mesh network using a second network stack (400, 600, 700, 800, 900, 1000, 1100) implementing a second network protocol, the IPv6 source address, and the IPv6 destination address, the second network stack (400, 600, 700, 800, 900, 1000, 1100) comprising: a transport layer configured to transport the application-layer message using User Datagram Protocol, UDP,; a network layer configured to communicate the application-layer message using IPv6; a data link layer configured to encode the application-layer message for transmission, the data link layer comprising a 6LoWPAN adaptation layer and a Media Access Control, MAC, layer; and a physical layer configured to transmit the encoded application-layer message with a wireless transceiver in the mesh network. receiving (1502, 1602), from the source node using a first network stack that implements a first network protocol, the application-layer message that includes a source address and a destination address; mapping (1504, 1604) the source address to an Internet Protocol Version 6, IPv6, source address; mapping (1506, 1606) the destination address to an IPv6 destination address; transmitting (1508, 1608) the application-layer message by the source node to a destination node in the mesh network using a second network stack (400, 600, 700, 800, 900, 1000, 1100) implementing a second network protocol, the IPv6 source address, and the IPv6 destination address, the second network stack (400, 600, 700, 800, 900, 1000, 1100) comprising: a transport layer configured to transport the application-layer message using User Datagram Protocol, UDP,; a network layer configured to communicate the application-layer message using IPv6; a data link layer configured to encode the application-layer message for transmission, the data link layer comprising a 6LoWPAN adaptation layer and a Media Access Control, MAC, layer; and a physical layer configured to transmit the encoded application-layer message with a wireless transceiver in the mesh network. a transport layer configured to transport the application-layer message using User Datagram Protocol, UDP,; a network layer configured to communicate the application-layer message using IPv6; a data link layer configured to encode the application-layer message for transmission, the data link layer comprising a 6LoWPAN adaptation layer and a Media Access Control, MAC, layer; and a physical layer configured to transmit the encoded application-layer message with a wireless transceiver in the mesh network.