mhurhangee/ep-ind-claims huggingface dataset:
A method carried out in a system, the system comprising at least a diagnosis plug-in device connected to the diagnosis plug of a vehicle, a host server, one or more on-board ECUs coupled to the diagnosis plug, wherein the diagnosis plug-in device is wireless coupled to the host server, the method comprising the following steps: /a/ detect, at the diagnosis plug-in device, a Bus Active condition, either via an electrical pin on the diagnosis plug or via an analysis of activity level on at least one Diagnosis bus accessible at the diagnosis plug, /b/ cause the diagnosis plug-in device to listen only on the at least one Diagnosis bus after the Bus Active condition is detected, /c/ determine, at the diagnosis plug-in device, a write enable condition, according to evolution of bus load level on the at least one diagnosis bus and / or after a certain time elapsed since Bus Active condition was true, /e/ whenever the write enable condition becomes true, carry out, at the diagnosis plug-in device, one ore more request/answer services to write requests on the diagnosis bus and retrieve, in the corresponding answers, various data from the board ECUs, to be decoded and forwarded to a client fleet management system, via the host server. /a/ detect, at the diagnosis plug-in device, a Bus Active condition, either via an electrical pin on the diagnosis plug or via an analysis of activity level on at least one Diagnosis bus accessible at the diagnosis plug, /b/ cause the diagnosis plug-in device to listen only on the at least one Diagnosis bus after the Bus Active condition is detected, /c/ determine, at the diagnosis plug-in device, a write enable condition, according to evolution of bus load level on the at least one diagnosis bus and / or after a certain time elapsed since Bus Active condition was true, /e/ whenever the write enable condition becomes true, carry out, at the diagnosis plug-in device, one ore more request/answer services to write requests on the diagnosis bus and retrieve, in the corresponding answers, various data from the board ECUs, to be decoded and forwarded to a client fleet management system, via the host server.
Method for producing a magnetocaloric composite material, wherein a magnetocaloric powder, consisting of powdery particles of a magnetocalorically active material, is mixed with a binder, in order to be able to form a magnetocaloric moulded body (9, 10) using the composite material produced thereby, wherein a metal or a metal alloy is used as the binder, wherein in an activation step a surface of the particles of the magnetocaloric powder is treated with an activation agent and a wetting capacity of the particles is increased, and wherein in a subsequent embedding step the surface-activated magnetocaloric powder is introduced into the binder, such that the binder encases the particles and connects to the particle at the surface, characterised in that the binder is heated, prior to the embedding step, to a temperature that is slightly above the melting temperature of the binder, and in that, in a following separation step, the encased particles of the magnetocaloric powder are separated from an excess portion of the binder which is not required for encasing the particles.
A surgical instrument comprising: (a) a body assembly, comprising: (i) an activation member, (ii) a first coupling assembly portion (334, 335) in communication with the activation member; and (b) an end effector assembly, comprising: (i) a transmission assembly, (ii) an end effector coupled to a distal end of the transmission assembly, and (iii) a second coupling assembly portion, wherein the second coupling assembly portion is operable to detachably couple to the first coupling assembly portion, wherein the activation member is operable to drive the end effector when the first and second coupling assembly portions are coupled; (c) an attachment assembly coupled to the first coupling assembly portion and operable to rotate the first coupling assembly portion to couple the first coupling assembly portion to the second coupling assembly portion, wherein the attachment assembly is operable to indicate when the first coupling assembly is coupled to the second coupling assembly, and wherein the attachment assembly comprises a motor operable to rotate the first coupling assembly relative to the body assembly. (a) a body assembly, comprising: (i) an activation member, (ii) a first coupling assembly portion (334, 335) in communication with the activation member; and (i) an activation member, (ii) a first coupling assembly portion (334, 335) in communication with the activation member; and (b) an end effector assembly, comprising: (i) a transmission assembly, (ii) an end effector coupled to a distal end of the transmission assembly, and (iii) a second coupling assembly portion, wherein the second coupling assembly portion is operable to detachably couple to the first coupling assembly portion, wherein the activation member is operable to drive the end effector when the first and second coupling assembly portions are coupled; (i) a transmission assembly, (ii) an end effector coupled to a distal end of the transmission assembly, and (iii) a second coupling assembly portion, wherein the second coupling assembly portion is operable to detachably couple to the first coupling assembly portion, wherein the activation member is operable to drive the end effector when the first and second coupling assembly portions are coupled; (c) an attachment assembly coupled to the first coupling assembly portion and operable to rotate the first coupling assembly portion to couple the first coupling assembly portion to the second coupling assembly portion, wherein the attachment assembly is operable to indicate when the first coupling assembly is coupled to the second coupling assembly, and wherein the attachment assembly comprises a motor operable to rotate the first coupling assembly relative to the body assembly.
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: each occurrence of R 1 is independently halo or C 1-3 alkyl, wherein said alkyl groups are optionally substituted with one to three halo; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; R 4 is hydrogen, methyl or ethyl; R 5 is hydrogen, C 1-3 alkyl, (C 1-3 alkyl)OR 7 or phenyl; R 6 is hydrogen, C 1-6 alkyl or (C 1-6 alkyl)OR 7; or R 5 and R 6 can be taken together with the atoms between them to form a 5-to 7-membered heterocyclyl group; R 7 is hydrogen or C 1-3 alkyl, which is optionally substituted with one to three halo; n is an integer between one and three. or a pharmaceutically acceptable salt thereof, wherein: each occurrence of R 1 is independently halo or C 1-3 alkyl, wherein said alkyl groups are optionally substituted with one to three halo; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; R 4 is hydrogen, methyl or ethyl; R 5 is hydrogen, C 1-3 alkyl, (C 1-3 alkyl)OR 7 or phenyl; R 6 is hydrogen, C 1-6 alkyl or (C 1-6 alkyl)OR 7; or R 5 and R 6 can be taken together with the atoms between them to form a 5-to 7-membered heterocyclyl group; R 7 is hydrogen or C 1-3 alkyl, which is optionally substituted with one to three halo; n is an integer between one and three. each occurrence of R 1 is independently halo or C 1-3 alkyl, wherein said alkyl groups are optionally substituted with one to three halo; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; R 4 is hydrogen, methyl or ethyl; R 5 is hydrogen, C 1-3 alkyl, (C 1-3 alkyl)OR 7 or phenyl; R 6 is hydrogen, C 1-6 alkyl or (C 1-6 alkyl)OR 7; or R 5 and R 6 can be taken together with the atoms between them to form a 5-to 7-membered heterocyclyl group; R 7 is hydrogen or C 1-3 alkyl, which is optionally substituted with one to three halo; n is an integer between one and three.
A method of controlling a walk-assistive robot, the method comprising: obtaining, via a plurality of sensors, ground data (Z1, Z2, Z3) regarding a terrain; and creating ground information (L, L1-L4) based on the obtained ground data (Z1, Z2, Z3); determining control patterns of the walk-assistive robot by analyzing the created ground information; and controlling the walk-assistive robot based on the determined control patterns, wherein the creating the ground information comprises: creating a map regarding the terrain by synthesizing the obtained ground data; and calculating ego-motion associated with the sensors, wherein the ground information includes information regarding the terrain located in at least one of forward, rearward, and sideward directions with respect to a walking direction of the walk-assistive robot. obtaining, via a plurality of sensors, ground data (Z1, Z2, Z3) regarding a terrain; and creating ground information (L, L1-L4) based on the obtained ground data (Z1, Z2, Z3); determining control patterns of the walk-assistive robot by analyzing the created ground information; and controlling the walk-assistive robot based on the determined control patterns, wherein the creating the ground information comprises: creating a map regarding the terrain by synthesizing the obtained ground data; and calculating ego-motion associated with the sensors, creating a map regarding the terrain by synthesizing the obtained ground data; and calculating ego-motion associated with the sensors, wherein the ground information includes information regarding the terrain located in at least one of forward, rearward, and sideward directions with respect to a walking direction of the walk-assistive robot.
A system-on-chip comprising: - a master module, - a slave module (ME1, ME2, ME3, ME4), the master module being configured to emit access requests to the slave module, - a clock (CLK1, CLK2, CLK3, CLK4) configured to clock the operation of the slave module, - a clock controller configured to activate or deactivate said clock and/or a power-on controller configured to power on or power off the slave module, the system also comprising a control system configured to detect that the clock is deactivated and/or that the slave module is powered off when the master module emits an access request to the slave module, and the system is characterised in that the master module is configured to: - activate the clock in the clock controller when the control system detects that this clock is deactivated and/or activate the power on of the slave module in the power-on controller when the control system detects that the slave module is powered off, then - emit a new access request to the slave module. - a master module, - a slave module (ME1, ME2, ME3, ME4), the master module being configured to emit access requests to the slave module, - a clock (CLK1, CLK2, CLK3, CLK4) configured to clock the operation of the slave module, - a clock controller configured to activate or deactivate said clock and/or a power-on controller configured to power on or power off the slave module, the system also comprising a control system configured to detect that the clock is deactivated and/or that the slave module is powered off when the master module emits an access request to the slave module, and the system is characterised in that the master module is configured to: - activate the clock in the clock controller when the control system detects that this clock is deactivated and/or activate the power on of the slave module in the power-on controller when the control system detects that the slave module is powered off, then - emit a new access request to the slave module. - activate the clock in the clock controller when the control system detects that this clock is deactivated and/or activate the power on of the slave module in the power-on controller when the control system detects that the slave module is powered off, then - emit a new access request to the slave module.
Contact device for material exchange with a plate, a bubble unit, an additional plate, a frame which is provided at its periphery with openings (10, 11 and 12), a movable two-way valve which is embodied in the form of solid plates (6, 7) that are arranged one above another and are connected together by means of a spacer strip, having a lift limiter and lower limiter, wherein: - the bent-down bottom edge of the frame serves as a lower limiter, - the top plate of the two-way valve in the top position serves as a contact element, and - the top plate of the two-way valve in the top position closes the opening of the contact element, characterized in that - the bubble unit is united with the frame, and - the bent-down top edge of the bubble unit serves as a lift limiter. - the bent-down bottom edge of the frame serves as a lower limiter, - the top plate of the two-way valve in the top position serves as a contact element, and - the top plate of the two-way valve in the top position closes the opening of the contact element, - the bubble unit is united with the frame, and - the bent-down top edge of the bubble unit serves as a lift limiter.
A computer implemented method (200, 300) for monitoring aortic pulse wave velocity, the method comprising: receiving (202, 302) a pulse signal (410, 510) from a single sensor on the exterior of an individual's body, the single sensor being positioned at a sensor location that allows acquisition of the pulse signal such that a reflected wave component of the pulse signal (410, 510) is present and allows characterization of reflected wave onset; determining a first derivative (420, 520) from the pulse signal (410, 510); determining a third derivative (440, 530) from the pulse signal (410, 510); identifying a reflected wave onset point (540, 718) in the pulse signal (410, 510) by; identifying a second peak of the third derivative (440, 530) and; identifying the reflected wave onset point using the second peak of the third derivative; determining a reflected wave ratio at the reflected wave onset point (540, 718) by: identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative (440, 530); and determining the reflected wave ratio as a normalized height of the first derivative onset point; determining the aortic pulse wave velocity from the reflected wave ratio; and at least one of displaying the aortic pulse wave velocity, transmitting the aortic pulse wave velocity, and storing the aortic pulse wave velocity. receiving (202, 302) a pulse signal (410, 510) from a single sensor on the exterior of an individual's body, the single sensor being positioned at a sensor location that allows acquisition of the pulse signal such that a reflected wave component of the pulse signal (410, 510) is present and allows characterization of reflected wave onset; determining a first derivative (420, 520) from the pulse signal (410, 510); determining a third derivative (440, 530) from the pulse signal (410, 510); identifying a reflected wave onset point (540, 718) in the pulse signal (410, 510) by; identifying a second peak of the third derivative (440, 530) and; identifying the reflected wave onset point using the second peak of the third derivative; identifying a second peak of the third derivative (440, 530) and; identifying the reflected wave onset point using the second peak of the third derivative; determining a reflected wave ratio at the reflected wave onset point (540, 718) by: identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative (440, 530); and determining the reflected wave ratio as a normalized height of the first derivative onset point; identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative (440, 530); and determining the reflected wave ratio as a normalized height of the first derivative onset point; determining the aortic pulse wave velocity from the reflected wave ratio; and at least one of displaying the aortic pulse wave velocity, transmitting the aortic pulse wave velocity, and storing the aortic pulse wave velocity.
A method of wireless communication performed by a user equipment, UE, the method comprising: identifying a length of a filler signal (206, 408) based at least in part on a parameter of the filler signal configured by a base station; transmitting the filler signal (206, 408) of the identified length to reserve access to a shared radio frequency, RF, spectrum band, the filler signal (206, 408) transmitted during a transmission gap that occurs between a downlink, DL, transmission and an uplink, UL, transmission in time division duplex, TDD; and transmitting the UL transmission on the reserved shared RF spectrum band subsequent to the transmission of the filler signal (206, 408). identifying a length of a filler signal (206, 408) based at least in part on a parameter of the filler signal configured by a base station; transmitting the filler signal (206, 408) of the identified length to reserve access to a shared radio frequency, RF, spectrum band, the filler signal (206, 408) transmitted during a transmission gap that occurs between a downlink, DL, transmission and an uplink, UL, transmission in time division duplex, TDD; and transmitting the UL transmission on the reserved shared RF spectrum band subsequent to the transmission of the filler signal (206, 408).
A urea solution injection nozzle, wherein a urea solution flow path (2c, 3c) supplying the urea solution and a gas flow path (2d, 4d) supplying the gas are configured, and a urea solution and gas are mixed and then injected from an injection port, wherein the urea solution injection nozzle includes a branching flow path communicating with the gas flow path (2d, 4d) and a mixing flow path communicating with the gas flow path (2d, 4d) and the urea solution flow path (2c, 3c), and the gas supplied from the gas flow path (2d, 4d) is mixed with the urea solution supplied from the urea solution flow path (2c, 3c) in the mixing flow path, characterized in that the gas supplied from the gas flow path (2d,4d) comes via the branching flow path to a side surface discharge port provided upstream of the injection port in the side surface of the urea solution injection nozzle, and is discharged from the side surface discharge port along the outermost uncovered surface of the urea solution injection nozzle in the same direction as an injection direction of the urea solution.
An electrical-accessory module for engaging in an electrical box, comprising a power-outlet or an on/off or two-way switch mechanism, and a casing that is made of insulating material and that comprises: • a side wall that defines an inside space for receiving at least one electrical connection element; • an outer collar that borders the side wall at the front so as to bear against the front edge of said electrical box; • a trim that gives the electrical-accessory module its electrical function and that comprises either openings for passing the pins of an electric plug, or a button; and • a finishing plate bordering the trim, wherein the casing comprises a front wall that includes an access window for accessing each electrical connection element, said access window being closed by the trim; characterized in that said front wall closes said inside space at the front and is made of a single piece with at least a part of said side wall, and comprises securing means for securing said finishing plate. • a side wall that defines an inside space for receiving at least one electrical connection element; • an outer collar that borders the side wall at the front so as to bear against the front edge of said electrical box; • a trim that gives the electrical-accessory module its electrical function and that comprises either openings for passing the pins of an electric plug, or a button; and • a finishing plate bordering the trim,
A control device for a vehicle oil supply device (44; 108; 120; 140), the vehicle oil supply device including: a mechanical oil pump configured to be rotatable forward and in reverse; an electric oil pump configured to suction oil stored in an oil storage portion common to the mechanical oil pump; a first filtering member provided to a first strainer of the mechanical oil pump; and a second filtering member provided to a second strainer of the electric oil pump, the control device comprising a controller configured to control a rotational speed (Neop) of the electric oil pump, characterized by the controller being configured to restrict the rotational speed (Neop) of the electric oil pump when the mechanical oil pump is rotated in reverse such that the rotational speed of the electric oil pump is lower when the mechanical oil pump is rotated in reverse compared to when the mechanical oil pump is rotated forward. a mechanical oil pump configured to be rotatable forward and in reverse; an electric oil pump configured to suction oil stored in an oil storage portion common to the mechanical oil pump; a first filtering member provided to a first strainer of the mechanical oil pump; and a second filtering member provided to a second strainer of the electric oil pump, the control device comprising a controller configured to control a rotational speed (Neop) of the electric oil pump, characterized by the controller being configured to restrict the rotational speed (Neop) of the electric oil pump when the mechanical oil pump is rotated in reverse such that the rotational speed of the electric oil pump is lower when the mechanical oil pump is rotated in reverse compared to when the mechanical oil pump is rotated forward.
A pulp dryer, which comprises - a first end wall and a second end wall, arranged parallelly at a distance from each other, wherein an entrance opening for a pulp web is arranged in the first end wall and an exit opening for the pulp web is arranged in the second end wall, - a plurality of horizontal superposed drying decks arranged between the first and the 10 second end wall, the drying decks comprising a plurality of elongated drying means (2, 2', 2", 2′′′) for drying and supporting the pulp web, the drying means having - a first end and a second end, - a longitudinal axis extending from the first end to the second end, parallelly with the first and second end walls, and - a blow surface with blow openings, wherein the drying means are arranged side-by-side so that air removal gaps (6, 6', 6", 6′′′) are formed between the adjacent drying means, characterized in that at least one of the drying decks comprises an edge zone, where cover elements (5, 5', 5", 5′′′) are arranged to cover at least part of at least some of the air removal gaps (6, 6', 6", 6′′′). - a first end wall and a second end wall, arranged parallelly at a distance from each other, wherein an entrance opening for a pulp web is arranged in the first end wall and an exit opening for the pulp web is arranged in the second end wall, - a plurality of horizontal superposed drying decks arranged between the first and the 10 second end wall, the drying decks comprising a plurality of elongated drying means (2, 2', 2", 2′′′) for drying and supporting the pulp web, the drying means having - a first end and a second end, - a longitudinal axis extending from the first end to the second end, parallelly with the first and second end walls, and - a blow surface with blow openings, - a first end and a second end, - a longitudinal axis extending from the first end to the second end, parallelly with the first and second end walls, and - a blow surface with blow openings, wherein the drying means are arranged side-by-side so that air removal gaps (6, 6', 6", 6′′′) are formed between the adjacent drying means, characterized in that at least one of the drying decks comprises an edge zone, where cover elements (5, 5', 5", 5′′′) are arranged to cover at least part of at least some of the air removal gaps (6, 6', 6", 6′′′).