mhurhangee/ep-ind-claims huggingface dataset:
A method for managing, by a computer system embedded in a first motor vehicle, the operation of adaptive cruise control of the first vehicle in connection with a second motor vehicle travelling in front of the first vehicle, characterised in that the method comprises the steps of: i) determine data characterizing a current lateral stability value of the second vehicle from data characterizing a previous lateral stability value of the second vehicle and data characterizing the absolute value of the difference between the lateral speed component of the first vehicle and the lateral speed component of the second vehicle; ii) determine data characterizing a value of a coefficient of speed of decision from the data characterizing a current value of lateral stability of the second vehicle; and iii) Manage the operation of adaptive cruise control based on data characterizing a value of a decision speed coefficient. i) determine data characterizing a current lateral stability value of the second vehicle from data characterizing a previous lateral stability value of the second vehicle and data characterizing the absolute value of the difference between the lateral speed component of the first vehicle and the lateral speed component of the second vehicle; ii) determine data characterizing a value of a coefficient of speed of decision from the data characterizing a current value of lateral stability of the second vehicle; and iii) Manage the operation of adaptive cruise control based on data characterizing a value of a decision speed coefficient.
A computer-implemented method for managing an instant messaging group, the method being performed by a server, the method comprising: receiving a marking event, the marking event including a group session message identifier; characterized in that the method further comprises: determining a group session message corresponding to the group session message identifier as a mandatory read message in group session messages, determining whether a group dissolution condition is satisfied based on a reading status of the mandatory read message, and in response to determining that the group dissolution condition is satisfied, dissolving a group based on a predetermined policy by deleting data associated with the group. determining a group session message corresponding to the group session message identifier as a mandatory read message in group session messages, determining whether a group dissolution condition is satisfied based on a reading status of the mandatory read message, and in response to determining that the group dissolution condition is satisfied, dissolving a group based on a predetermined policy by deleting data associated with the group.
An apparatus for use in evaluating a linear polymer molecule, comprising: a vessel for holding a liquid containing a candidate polymer molecule; a solid-state membrane, optionally supported by a substrate, and containing a nanoscale aperture therein, wherein the aperture includes an entry port and an exit port defining a channel there between, and wherein the membrane is positioned to be contactable with a liquid in the vessel; means for causing a candidate polymer molecule to linearly traverse the aperture; and a detector for detecting time-dependent or monomer-dependent interactions of the candidate molecule with the aperture, characterized in that said detector comprises first and second electrodes adjacent to the aperture and in electrical communication with the channel. a vessel for holding a liquid containing a candidate polymer molecule; a solid-state membrane, optionally supported by a substrate, and containing a nanoscale aperture therein, wherein the aperture includes an entry port and an exit port defining a channel there between, and wherein the membrane is positioned to be contactable with a liquid in the vessel; means for causing a candidate polymer molecule to linearly traverse the aperture; and a detector for detecting time-dependent or monomer-dependent interactions of the candidate molecule with the aperture, characterized in that said detector comprises first and second electrodes adjacent to the aperture and in electrical communication with the channel.
A seaweed seeding device for wrapping seaweed rope around a main rope, the device comprising: - a frame, - a friction wheel rotatably connected to the frame to receive the main rope around the wheel and rotate as the main rope is pulled through the device; - a bobbin carrier rotatably connected to the frame around an axis of rotation; - a seaweed exit guide connected to the bobbin carrier offset from the axis of rotation; and - a transmission connecting the friction wheel to the bobbin carrier to translate rotational movement of the friction wheel to rotate the bobbin carrier. - a frame, - a friction wheel rotatably connected to the frame to receive the main rope around the wheel and rotate as the main rope is pulled through the device; - a bobbin carrier rotatably connected to the frame around an axis of rotation; - a seaweed exit guide connected to the bobbin carrier offset from the axis of rotation; and - a transmission connecting the friction wheel to the bobbin carrier to translate rotational movement of the friction wheel to rotate the bobbin carrier.
A power supply connector for electric automobiles, which comprises: a connector body; a case for accommodating the connector body; a grasping member that is attached to the case; a lock lever that limits the movement of the case with respect to the grasping member; and a link member (10a, 10b) that is linked to the lock lever; characterized in that an electromagnetic solenoid is fixed to the grasping member; in that a plunger of the electromagnetic solenoid is connected to the link member (10a, 10b), and in that, when the lock lever is in a released state, the connector body and the grasping member are slidable in a direction of nearly the same axis line with respect to the case, and in that by sliding the grasping member with respect to the case and operating the electromagnetic solenoid while the lock lever is locked to the case, a state in which the lock lever is locked to the case by the link member (10a, 10b) is maintained, and in that a cover is provided on the grasping member, and a pin that penetrates the lock lever can be extracted by opening the cover. a connector body; a case for accommodating the connector body; a grasping member that is attached to the case; a lock lever that limits the movement of the case with respect to the grasping member; and a link member (10a, 10b) that is linked to the lock lever;
A method for operating a heating system in which - a fuel is burned with a burner of a heating boiler, - a burner output of the burner is controlled by a control device, - condensate produced during combustion of the fuel is fed to a condensate siphon having a down pipe and a riser pipe (3.1, 3.2), - a condensate filling level of the condensate siphon is detected by a sensor, and - the condensate filling level detected by the sensor and a detected outside temperature are transmitted to the control device, characterized in that an outside temperature limit value is predetermined and compared with the detected outside temperature, and in that, when the condensate filling level in the down pipe (3.1) drops and when a predetermined minimum condensate filling level is reached at an outside temperature above the outside temperature limit value, the burner output of the burner is reduced or, at an outside temperature below the outside temperature limit value, a difference between the flow and return temperatures of the boiler is increased. - a fuel is burned with a burner of a heating boiler, - a burner output of the burner is controlled by a control device, - condensate produced during combustion of the fuel is fed to a condensate siphon having a down pipe and a riser pipe (3.1, 3.2), - a condensate filling level of the condensate siphon is detected by a sensor, and - the condensate filling level detected by the sensor and a detected outside temperature are transmitted to the control device, characterized in that an outside temperature limit value is predetermined and compared with the detected outside temperature, and in that, when the condensate filling level in the down pipe (3.1) drops and when a predetermined minimum condensate filling level is reached at an outside temperature above the outside temperature limit value, the burner output of the burner is reduced or, at an outside temperature below the outside temperature limit value, a difference between the flow and return temperatures of the boiler is increased.
A reference signal generation method, comprising: obtaining a reference signal sequence based on a pseudo-random sequence initial factor c init; and mapping the sequence to one or more OFDM symbols, wherein the pseudo-random sequence initial factor c init is represented by using 31 bits; characterized in that 10 least significant bits in the 31 bits represent n ID mod1024; 21 most significant bits in the 31 bits represent N symb slot n s, ƒ μ + l + 1 2 n ID mod 1024 + 1; and d bits in the 21 bits represent ⌊ n ID 1024 ⌋, and a value of d is 2, wherein N symb slot represents a quantity of OFDM symbols in a slot, └ ┘ represents rounding down, n s, ƒ μ represents an index of a slot in a frame, l represents an index of an OFDM symbol in a slot, a value range of n ID is {0, 1,..., 4095}, μ represents a parameter related to a subcarrier spacing, and mod represents a modulo operation. obtaining a reference signal sequence based on a pseudo-random sequence initial factor c init; and mapping the sequence to one or more OFDM symbols, wherein the pseudo-random sequence initial factor c init is represented by using 31 bits; characterized in that 10 least significant bits in the 31 bits represent n ID mod1024; 21 most significant bits in the 31 bits represent N symb slot n s, ƒ μ + l + 1 2 n ID mod 1024 + 1; and d bits in the 21 bits represent ⌊ n ID 1024 ⌋, and a value of d is 2, wherein N symb slot represents a quantity of OFDM symbols in a slot, └ ┘ represents rounding down, n s, ƒ μ represents an index of a slot in a frame, l represents an index of an OFDM symbol in a slot, a value range of n ID is {0, 1,..., 4095}, μ represents a parameter related to a subcarrier spacing, and mod represents a modulo operation.
A lithium ion or lithium-polymer battery cell or battery cell precursor, which comprises a) a frame of a material selected from aluminum, an aluminum composite or steel, the frame exhibiting an upper side and a lower side; b) two or more sheets made of a material selected from aluminum, an aluminum-polymer-composite or steel, wherein one or more of the two or more sheets being affixed onto the upper side of the frame and one or more other of the two or more sheets being affixed onto the lower side of the frame; c) wherein the frame together with the two or more sheets being affixed to the frame to form an inner hollow space comprising an electrode assembly of one or more anodes, one or more cathodes and one or more separators interposed between anode and cathodes; d) wherein one or more positive and one or more negative electrode terminals (5a, 5b) protrude from the inner hollow space to an outside of the battery cell; characterized in e) that the frame is equipped with a closable duct for introducing an electrolyte into the cell by means of an injection lance. a) a frame of a material selected from aluminum, an aluminum composite or steel, the frame exhibiting an upper side and a lower side; b) two or more sheets made of a material selected from aluminum, an aluminum-polymer-composite or steel, wherein one or more of the two or more sheets being affixed onto the upper side of the frame and one or more other of the two or more sheets being affixed onto the lower side of the frame; c) wherein the frame together with the two or more sheets being affixed to the frame to form an inner hollow space comprising an electrode assembly of one or more anodes, one or more cathodes and one or more separators interposed between anode and cathodes; d) wherein one or more positive and one or more negative electrode terminals (5a, 5b) protrude from the inner hollow space to an outside of the battery cell; characterized in e) that the frame is equipped with a closable duct for introducing an electrolyte into the cell by means of an injection lance.
A system for controlling an engine tone by an artificial intelligence based on a sound quality index of a vehicle, comprising: a sound output device for generating a reinforcing sound to reinforce an engine sound of the vehicle; an engine characteristic measurement sensor for measuring sound source characteristics of the engine sound; an interior noise measurement sensor for detecting interior noise of the vehicle; a signal processing controller that receives signals from the engine characteristic measurement sensor in real time and controls the sound output device such that the engine sound reaches a target tone; and a processor connected to the signal processing controller to optimize the sound quality index such that the engine sound reaches the target tone through the artificial intelligence, characterized in that the processor performs real-time active control of the engine tone based on deep learning, and wherein the active control based on the deep learning determines and outputs an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise, or wherein the active control based on the deep learning determines an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise with respect to a noise source required to be reduced, and controls an unnecessary frequency band to be reduced. a sound output device for generating a reinforcing sound to reinforce an engine sound of the vehicle; an engine characteristic measurement sensor for measuring sound source characteristics of the engine sound; an interior noise measurement sensor for detecting interior noise of the vehicle; a signal processing controller that receives signals from the engine characteristic measurement sensor in real time and controls the sound output device such that the engine sound reaches a target tone; and a processor connected to the signal processing controller to optimize the sound quality index such that the engine sound reaches the target tone through the artificial intelligence, characterized in that the processor performs real-time active control of the engine tone based on deep learning, and wherein the active control based on the deep learning determines and outputs an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise, or wherein the active control based on the deep learning determines an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise with respect to a noise source required to be reduced, and controls an unnecessary frequency band to be reduced.
An automobile comprising a dash panel, an engine mounted in an engine room in front of the dash panel, a fuel tank, and a fuel piping structure through which fuel from the fuel tank is supplied to the engine, characterized in that the fuel piping structure comprises: a fuel piping which is made of a metal pipe and disposed from an upper side to a lower side between a rear face of the engine and a front face of the dash panel; an upper stay provided at a position higher than an upper face of the engine, on a front face of the dash panel; and a lower stay provided at a position facing a rear face of the engine, on the front face of the dash panel, the fuel piping is welded at an upstream welding portion thereof to the upper stay with respect to a flow direction of fuel in the fuel piping and at a downstream welding portion thereof to the lower stay with respect to the fuel flow direction, and the fuel piping is bent to have looseness between the upstream welding portion and the downstream welding portion, wherein the looseness of the fuel piping between the upstream welding portion and the downstream welding portion is set such that when the engine is moved rearward due to load by a frontal collision of the automobile, the portion of the fuel piping between the upstream and downstream welding portions (20a, 20b) is stretched and tensile load is prevented from acting on the fuel piping. a fuel piping which is made of a metal pipe and disposed from an upper side to a lower side between a rear face of the engine and a front face of the dash panel; an upper stay provided at a position higher than an upper face of the engine, on a front face of the dash panel; and a lower stay provided at a position facing a rear face of the engine, on the front face of the dash panel, the fuel piping is welded at an upstream welding portion thereof to the upper stay with respect to a flow direction of fuel in the fuel piping and at a downstream welding portion thereof to the lower stay with respect to the fuel flow direction, and the fuel piping is bent to have looseness between the upstream welding portion and the downstream welding portion, wherein the looseness of the fuel piping between the upstream welding portion and the downstream welding portion is set such that when the engine is moved rearward due to load by a frontal collision of the automobile, the portion of the fuel piping between the upstream and downstream welding portions (20a, 20b) is stretched and tensile load is prevented from acting on the fuel piping.
A process for preparing various metals and derivatives thereof, said process comprising: feeding a blast furnace with copper-containing briquettes having a ratio (2*% S) / (% Cu) of about 0.5 to about 2.0, and with a source of carbon in order to obtain a multi-layer product and an off gas; and wherein said obtained product comprises: a first layer disposed at top of said multi-layer product, said first layer comprising slag; a second layer, disposed below said first layer, and that comprises matte; a speiss layer disposed below said second layer; and optionally a bottom layer disposed below said second layer or said speiss layer and comprising an alloy of at least two metals, wherein said process comprises controlling sulfur content of said second layer and feeding said blast furnace with an iron source if said sulfur content is over a predetermined value, leading to a given metallization level for said second layer, wherein said speiss layer comprises about 55 % to about 90 % by weight of iron. a first layer disposed at top of said multi-layer product, said first layer comprising slag; a second layer, disposed below said first layer, and that comprises matte; a speiss layer disposed below said second layer; and optionally a bottom layer disposed below said second layer or said speiss layer and comprising an alloy of at least two metals, wherein said process comprises controlling sulfur content of said second layer and feeding said blast furnace with an iron source if said sulfur content is over a predetermined value, leading to a given metallization level for said second layer, wherein said speiss layer comprises about 55 % to about 90 % by weight of iron.
A pedicle screw system (100, 800), comprising: a pedicle screw comprising a screw head with a screw head diameter and an elongate threaded portion coupled to and extending from the screw head; and a tulip assembly (106, 806) comprising: a housing defining a generally cylindrical engagement orifice having a screw head contact surface which defines an inner diameter of the tulip assembly (106, 806); wherein said inner diameter of the tulip assembly (106, 806) defined by the screw head contact surface is smaller than said screw head diameter; characterized in that said housing is adapted to permit head-first introduction of the screw head into the engagement orifice whereby head-first introduction of the screw head creates an interference fit between the screw head contact surface and the screw head on engagement of the screw head and tulip assembly (106, 806) due to a deformation between the screw head and said cylindrical engagement orifice. a pedicle screw comprising a screw head with a screw head diameter and an elongate threaded portion coupled to and extending from the screw head; and a tulip assembly (106, 806) comprising: a housing defining a generally cylindrical engagement orifice having a screw head contact surface which defines an inner diameter of the tulip assembly (106, 806); wherein said inner diameter of the tulip assembly (106, 806) defined by the screw head contact surface is smaller than said screw head diameter; characterized in that said housing is adapted to permit head-first introduction of the screw head into the engagement orifice whereby head-first introduction of the screw head creates an interference fit between the screw head contact surface and the screw head on engagement of a housing defining a generally cylindrical engagement orifice having a screw head contact surface which defines an inner diameter of the tulip assembly (106, 806); wherein said inner diameter of the tulip assembly (106, 806) defined by the screw head contact surface is smaller than said screw head diameter; characterized in that said housing is adapted to permit head-first introduction of the screw head into the engagement orifice whereby head-first introduction of the screw head creates an interference fit between the screw head contact surface and the screw head on engagement of the screw head and tulip assembly (106, 806) due to a deformation between the screw head and said cylindrical engagement orifice.
A method of controlling motion on the ground of a device having at least two legs, the method comprising: • an obtaining step (300; 400; 800) of obtaining current values (σ) of kinematic state variables of the device; • an optimization step (320; 420; 820) of optimizing a movement command () for the device under constraints (1500; 1900) while taking account of said current values (σ) and of a movement setpoint (σ d) for the device, said optimization (320; 420; 820) being performed by modeling (Figures 1, 2) a movement of the device between a current state (t 1) and a second state (t 2), the device being supported during said movement by at least on a first leg, and then from an instant (t p) in which the center of pressure on the ground is changed, at least on a second leg; and • an application step (330; 430; 830) of applying said movement command (); the method being characterized in that said optimization is performed on the assumption that the gravity potential energy of the device in the second state (t 2) is a local maximum as a function of time. • an obtaining step (300; 400; 800) of obtaining current values (σ) of kinematic state variables of the device; • an optimization step (320; 420; 820) of optimizing a movement command () for the device under constraints (1500; 1900) while taking account of said current values (σ) and of a movement setpoint (σ d) for the device, said optimization (320; 420; 820) being performed by modeling (Figures 1, 2) a movement of the device between a current state (t 1) and a second state (t 2), the device being supported during said movement by at least on a first leg, and then from an instant (t p) in which the center of pressure on the ground is changed, at least on a second leg; and • an application step (330; 430; 830) of applying said movement command ();