mhurhangee/ep-ind-claims huggingface dataset:
A process control system, comprising: a process controller level including at least one process controller (121, 122) an input/output (I/O) module level including at least one I/O module (231, 232, 233) coupled to the process controller; and a scanner level between the process controller level and the I/O module level including at least one I/O scanner, wherein the I/O scanner includes control logic (215a, 215b) comprising a control hardware or algorithm blocks, wherein the I/O scanner is configured to interface the at least one process controller of the process controller level with the at least one I/O module of the I/O module level, wherein the process controller level and the I/O module level are communicatively coupled and both include control logic (120a, 120b, and 235a, 235b, 235c) comprising control hardware or algorithm blocks implemented as at least one of a function block, a ladder logic block, or a textual program block; and wherein the control logic is placed into two or more different levels of the process control system including the process controller level, the scanner level, and the I/O module level and is configured to execute and exchange data to perform process control for a process run by the process control system in a distributed fashion across the process controller level and the I/O module level. a process controller level including at least one process controller (121, 122) an input/output (I/O) module level including at least one I/O module (231, 232, 233) coupled to the process controller; and a scanner level between the process controller level and the I/O module level including at least one I/O scanner, wherein the I/O scanner includes control logic (215a, 215b) comprising a control hardware or algorithm blocks, wherein the I/O scanner is configured to interface the at least one process controller of the process controller level with the at least one I/O module of the I/O module level, wherein the process controller level and the I/O module level are communicatively coupled and both include control logic (120a, 120b, and 235a, 235b, 235c) comprising control hardware or algorithm blocks implemented as at least one of a function block, a ladder logic block, or a textual program block; and wherein the control logic is placed into two or more different levels of the process control system including the process controller level, the scanner level, and the I/O module level and is configured to execute and exchange data to perform process control for a process run by the process control system in a distributed fashion across the process controller level and the I/O module level.
A node (114, 140, 160, 180, 204, 304, 404, 502, 702, 802, 1204, 1206, 2026, 2028, 2602, 2604, 2606) comprising a processor configured to: receive a first real-time video traffic flow, wherein a state variable is associated with the first real-time video traffic flow at the node, and wherein the first real-time video traffic flow comprises a plurality of packets and each packet comprises a lost packet indicator; receive a second real-time video traffic flow, wherein a state variable is associated with the second real-time video traffic flow at the node, and wherein the second real-time video traffic flow comprises a plurality of packets and each packet comprises a lost packet indicator; characterized by the processor being further configured to: drop a first packet in the first real-time video traffic flow; update the state variable associated with the first real-time video traffic flow at the node to indicate the dropped first packet; and update the lost packet indicator for a second packet in the first real-time video traffic flow based on the updated state variable associated with the first real-time video traffic flow. receive a first real-time video traffic flow, wherein a state variable is associated with the first real-time video traffic flow at the node, and wherein the first real-time video traffic flow comprises a plurality of packets and each packet comprises a lost packet indicator; receive a second real-time video traffic flow, wherein a state variable is associated with the second real-time video traffic flow at the node, and wherein the second real-time video traffic flow comprises a plurality of packets and each packet comprises a lost packet indicator; characterized by the processor being further configured to: drop a first packet in the first real-time video traffic flow; update the state variable associated with the first real-time video traffic flow at the node to indicate the dropped first packet; and update the lost packet indicator for a second packet in the first real-time video traffic flow based on the updated state variable associated with the first real-time video traffic flow. drop a first packet in the first real-time video traffic flow; update the state variable associated with the first real-time video traffic flow at the node to indicate the dropped first packet; and update the lost packet indicator for a second packet in the first real-time video traffic flow based on the updated state variable associated with the first real-time video traffic flow.
Storm overflow intended to be fixed to a receiving structure, the storm overflow comprising a flap tilting about a horizontal axis between a closed position and an open position, means for locking the flap in the closed position and means for remotely controlling these locking means, these controlling means making it possible to remotely control the unlocking of the flap, the storm overflow also comprising: - a frame intended to be fixed in the receiving structure, this frame having, in height, a dimension greater than that which the flap has in height; - a chassis on which the said flap is mounted so as to tilt about the said horizontal axis, this chassis forming, below the said horizontal axis, a seat for receiving the part of the flap situated below this horizontal axis, and this chassis also forming, above the said horizontal axis, an opening allowing the flap to tilt; the part of the flap located above this horizontal axis occupies the whole of this opening in the closed position of the flap; the chassis has, in height, a smaller dimension than the frame so that there are openings between the chassis and the frame, and the chassis is able to be fixed at different points of the frame in a vertical direction; in width, the chassis is inscribed in the frame; and - panels adapted to be mounted on the frame so as to close said openings which, according to the fixing position of the chassis with respect to the frame, exist between this chassis and this frame. - a frame intended to be fixed in the receiving structure, this frame having, in height, a dimension greater than that which the flap has in height; - a chassis on which the said flap is mounted so as to tilt about the said horizontal axis, this chassis forming, below the said horizontal axis, a seat for receiving the part of the flap situated below this horizontal axis, and this chassis also forming, above the said horizontal axis, an opening allowing the flap to tilt; the part of the flap located above this horizontal axis occupies the whole of this opening in the closed position of the flap; the chassis has, in height, a smaller dimension than the frame so that there are openings between the chassis and the frame, and the chassis is able to be fixed at different points of the frame in a vertical direction; in width, the chassis is inscribed in the frame; and - panels adapted to be mounted on the frame so as to close said openings which, according to the fixing position of the chassis with respect to the frame, exist between this chassis and this frame.
A detection cartridge (100a, 100b, 100c, 100d, 100e, 100j, 100k), comprising: a detection tank (102, 202); a sample tank (104, 204) in communication with the detection tank (102, 202) via a pathway; N containers (106a, 106b, 106c, 212a, 212b, 212c) in communication with the detection tank (102, 202), wherein N is a positive integer greater than or equal to 2; and at least one first temporary tank (108a, 108b, 108c, 108d, 108e, 108f, 108g, 108h, 214a, 214b, 214c, 214d, 214e, 214f, 214g, 214h) disposed on at least one of N flow paths between the N containers (106a, 106b, 106c, 212a, 212b, 212c) and the detection tank (102, 202), wherein a quantity of the temporary tanks on an nth flow path in the N flow paths is at least two greater than that on an (n-1)th flow path, and n is a positive integer that is not less than 2 and is not more than N, wherein the temporary tanks (108a, 108b, 108c, 108d, 108e, 108f, 108g, 108h, 214a, 214b, 214c, 214d, 214e, 214f, 214g, 214h) are all located at a turning point of the N flow paths; the detection cartridge (100a, 100b, 100c, 100d, 100e, 100j, 100k) characterized by a waste tank (112, 210) in direct communication with the detection tank (102, 202), wherein the N flow paths extend to the waste tank (112, 210) from the detection tank (102,202), and the detection tank is located at a further turning point of the N flow paths. a detection tank (102, 202); a sample tank (104, 204) in communication with the detection tank (102, 202) via a pathway; N containers (106a, 106b, 106c, 212a, 212b, 212c) in communication with the detection tank (102, 202), wherein N is a positive integer greater than or equal to 2; and at least one first temporary tank (108a, 108b, 108c, 108d, 108e, 108f, 108g, 108h, 214a, 214b, 214c, 214d, 214e, 214f, 214g, 214h) disposed on at least one of N flow paths between the N containers (106a, 106b, 106c, 212a, 212b, 212c) and the detection tank (102, 202), wherein a quantity of the temporary tanks on an nth flow path in the N flow paths is at least two greater than that on an (n-1)th flow path, and n is a positive integer that is not less than 2 and is not more than N, wherein the temporary tanks (108a, 108b, 108c, 108d, 108e, 108f, 108g, 108h, 214a, 214b, 214c, 214d, 214e, 214f, 214g, 214h) are all located at a turning point of the N flow paths; the detection cartridge (100a, 100b, 100c, 100d, 100e, 100j, 100k) characterized by a waste tank (112, 210) in direct communication with the detection tank (102, 202), wherein the N flow paths extend to the waste tank (112, 210) from the detection tank (102,202), and the detection tank is located at a further turning point of the N flow paths.
A nickel-based active material having 80 mol% or more of nickel with respect to the metal elements excluding lithium, the nickel-based active material comprising: i) large secondary particles having an average particle size in a range of 10 μm to 20 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; ii) large crystal particles comprising primary particles having an average particle size in a range of 1 μm to 5 μm; and iii) small secondary particles having an average particle size in a range of 1 μm to 7 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; wherein the average particle size is the D50 particle size measured by the method defined in the description. the nickel-based active material comprising: i) large secondary particles having an average particle size in a range of 10 μm to 20 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; ii) large crystal particles comprising primary particles having an average particle size in a range of 1 μm to 5 μm; and iii) small secondary particles having an average particle size in a range of 1 μm to 7 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; i) large secondary particles having an average particle size in a range of 10 μm to 20 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; ii) large crystal particles comprising primary particles having an average particle size in a range of 1 μm to 5 μm; and iii) small secondary particles having an average particle size in a range of 1 μm to 7 μm and each comprising an aggregate of primary particles having an average particle size of 1 μm or less; wherein the average particle size is the D50 particle size measured by the method defined in the description.
Device for controlling the functions of a watch, the function control device mainly comprising a crown connected to a stem for actuating means for selecting functions in a watch case, the crown being located on an outer portion of the watch case, the function control device comprising, integrated in a watch movement, an optical action system actuated in one position of the stem from among three possible defined positions (T0, T1, T2) of the stem in order to determine the direction of rotation of the stem, and an electronic mechanical arrangement for controlling functions in all three positions of the stem, said electronic mechanical arrangement comprising a guide element mounted to rotate about a rotating arbor on a support connected to a plate of the watch movement, the generally flat-shaped guide element having a rounded end arranged in a circular annular groove of an intermediate portion of the stem to be driven in rotation during the movement of the stem in one or other of the three defined positions, and a selection part mounted to rotate about another rotating arbor on the support and above the annular groove of the stem and intended to be driven in rotation by the rounded end of the guide element of sufficient thickness to also be housed inside a U-shaped opening of one end of the selection part, the selection part comprising at least one electrically conductive contactor arranged on an opposite side to the U-shaped end so as to contact a first electrical terminal on a printed circuit board in a first position of the stem, to have no electrical contact in a second position of the stem, and to contact a second electrical terminal on the printed circuit board in a third position of the stem.
A nonlinear control system for producing a rendered audio stream from one or more input signals (w) comprising: a controller configured to accept the one or more input signals (w), and one or more estimated states, and to generate an intermediate control signal (u) and one or more control signals (u') therefrom; a model configured to accept the intermediate control signal (u) and generate the one or more estimated states (x) therefrom; and an audio system comprising at least one transducer, the audio system configured to accept the one or more control signals (u') and to drive the transducer with the one or more control signals or a signal generated therefrom to produce the rendered audio stream, wherein the controller comprises a feed forward control system and a feedback control system that is interconnected with the feed forward control system, and the model is configured to generate one or more reference signals (y ref) from the one or more estimated states (ẋ), the feed forward control system is configured to perform a nonlinear transformation on the one or more input signals (w) based on the one or more estimated states to produce the intermediate control signal (u), and the feedback control system is configured to compare two or more of the intermediate control signal (u), the one or more reference signals (y ref), and one or more feedback signals (y) received from the audio system to generate the one or more control signals (u'). a controller configured to accept the one or more input signals (w), and one or more estimated states, and to generate an intermediate control signal (u) and one or more control signals (u') therefrom; a model configured to accept the intermediate control signal (u) and generate the one or more estimated states (x) therefrom; and an audio system comprising at least one transducer, the audio system configured to accept the one or more control signals (u') and to drive the transducer with the one or more control signals or a signal generated therefrom to produce the rendered audio stream, wherein the controller comprises a feed forward control system and a feedback control system that is interconnected with the feed forward control system, and the model is configured to generate one or more reference signals (y ref) from the one or more estimated states (ẋ), the feed forward control system is configured to perform a nonlinear transformation on the one or more input signals (w) based on the one or more estimated states to produce the intermediate control signal (u), and the feedback control system is configured to compare two or more of the intermediate control signal (u), the one or more reference signals (y ref), and one or more feedback signals (y) received from the audio system to generate the one or more control signals (u').
A device for dispensing a fluid product nasally, comprising a reservoir containing fluid product; a dispensing means for dispensing a dose of fluid product upon each actuation, and a dispensing head which is assembled on said dispensing means, said dispensing head being provided with a dispensing orifice, characterized in that the nasal device comprises: - a camera for determining the spatial position of said nasal device in a nostril of the user, said camera determining the vertical angle of inclination (α) and the lateral angle of inclination (β) between the longitudinal axis of said nasal device and an axis of the face, said axis being identified by means of several reference points detected by said camera, in particular three reference points on the nose, six on each eye and five on each eyebrow, the orientation of said axis with respect to said nostril always being identical irrespective of the position of the user, - a positioning indicator for guiding the user towards an optimal orientation of the nasal device in said nostril, and - an electronic module and automatic actuation means (40; 50) adapted to automatically actuate said nasal device when said camera determines that said nasal device is disposed in an optimal position in said nostril. - a camera for determining the spatial position of said nasal device in a nostril of the user, said camera determining the vertical angle of inclination (α) and the lateral angle of inclination (β) between the longitudinal axis of said nasal device and an axis of the face, said axis being identified by means of several reference points detected by said camera, in particular three reference points on the nose, six on each eye and five on each eyebrow, the orientation of said axis with respect to said nostril always being identical irrespective of the position of the user, - a positioning indicator for guiding the user towards an optimal orientation of the nasal device in said nostril, and - an electronic module and automatic actuation means (40; 50) adapted to automatically actuate said nasal device when said camera determines that said nasal device is disposed in an optimal position in said nostril.
Communication device for wireless communication networks comprising: - transmission and/or reception means for communicating according to a low bitrate and according to a high bitrate, and - processing means connected to the transmission and/or reception means for receiving and dispatching data signals characterized in that - said transmission and/or reception means comprise - parametrization means for changing the mode of operation at high bitrate and at low bitrate, and - means for providing a signal representative of the detection of a carrier signal, and - means for providing a signal representative of synchronization, and - the processing means are connected to the transmission and/or reception means: - for receiving said signal representative of the reception of a carrier signal and said signal representative of the reception of a synchronization signal, and - for providing the parametrization means with a mode of operation parametrization signal as a function of said signal representative of the reception of said carrier signal and of said signal representative of synchronization, said reception means being configured to listen for a high-bitrate signal, said processing means providing said mode of operation parametrization signal for operation at low bitrate when said signal representative of synchronization is not received before the end of a first predetermined time after said signal representative of the reception of a carrier signal. - transmission and/or reception means for communicating according to a low bitrate and according to a high bitrate, and - processing means connected to the transmission and/or reception means for receiving and dispatching data signals characterized in that - said transmission and/or reception means comprise - parametrization means for changing the mode of operation at high bitrate and at low bitrate, and - means for providing a signal representative of the detection of a carrier signal, and - means for providing a signal representative of synchronization, and - the processing means are connected to the transmission and/or reception means: - for receiving said signal representative of the reception of a carrier signal and said signal representative of the reception of a synchronization signal, and - for providing the parametrization means with a mode of operation parametrization signal as a function of said signal representative of the reception of said carrier signal and of said signal representative of synchronization, said reception means being configured to listen for a high-bitrate signal, said processing means providing said mode of operation parametrization signal for operation at low bitrate when said signal representative of synchronization is not received before the end of a first predetermined time after said signal representative of the reception of a carrier signal.
Method for the manufacture of a plastic component, in particular a cushioning element for sports apparel, comprising: a. loading a mold with a first material which comprises particles of an expanded material; b. during loading the mold, pre-heating the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), and characterised in that the energy supplied by means of the at least one electromagnetic field is varied over time. a. loading a mold with a first material which comprises particles of an expanded material; b. during loading the mold, pre-heating the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), and characterised in that the energy supplied by means of the at least one electromagnetic field is varied over time.
A string for use in a wellbore, comprising: an expansion joint having a first tubular that slides relative to a second tubular; and a control line (150, 200) extending from a location above the expansion joint to a location below the expansion joint, wherein the control line (150, 200) is wrapped around the first tubular to form a plurality of coils (220a, 220b, 220c) around the first tubular; characterized by a flexible member arranged to connect at least some of the coils (220a, 220b, 220c) in the plurality of coils (220a, 220b, 220c) to each other, and configured to allow stretching between the connected coils (220a, 220b, 220c) to a selected distance via stretching of the flexible member when the control line (150, 200) is stretched. an expansion joint having a first tubular that slides relative to a second tubular; and a control line (150, 200) extending from a location above the expansion joint to a location below the expansion joint, wherein the control line (150, 200) is wrapped around the first tubular to form a plurality of coils (220a, 220b, 220c) around the first tubular; characterized by a flexible member arranged to connect at least some of the coils (220a, 220b, 220c) in the plurality of coils (220a, 220b, 220c) to each other, and configured to allow stretching between the connected coils (220a, 220b, 220c) to a selected distance via stretching of the flexible member when the control line (150, 200) is stretched.