mhurhangee/ep-ind-claims huggingface dataset:
A fastening device to releasably interconnect ground protection mats comprising: a first part of a connection mechanism having a male part; a second part of the connection mechanism having a female part with a bore to receive the male part and configured to connect at least two neighbouring ground protection mats side-by-side by rotation of the male part relative to the female part; the male part comprises a first helical rib projecting radially outward from a shaft and the female part comprises a second helical rib projecting radially inward at the bore configured to receive the shaft, the ribs configured to abut one another, an axial length of the first helical rib being in the range 70% to 150% of a pitch of the first helical rib; an axial and radial lock having a first element at the rib of the male part and a second element at the rib of the female part, the first and second elements configured to engage one another by the rotation of male part relative to the female part; and a bias lock actuator to impose an axial force to the first element to force the first element in engaged contact against the second element and to provide frictional resistance to further rotation of the male part relative to the female part. a first part of a connection mechanism having a male part; a second part of the connection mechanism having a female part with a bore to receive the male part and configured to connect at least two neighbouring ground protection mats side-by-side by rotation of the male part relative to the female part; the male part comprises a first helical rib projecting radially outward from a shaft and the female part comprises a second helical rib projecting radially inward at the bore configured to receive the shaft, the ribs configured to abut one another, an axial length of the first helical rib being in the range 70% to 150% of a pitch of the first helical rib; an axial and radial lock having a first element at the rib of the male part and a second element at the rib of the female part, the first and second elements configured to engage one another by the rotation of male part relative to the female part; and a bias lock actuator to impose an axial force to the first element to force the first element in engaged contact against the second element and to provide frictional resistance to further rotation of the male part relative to the female part.
A method of lighting at least part of a space, using a light emitting diode string comprising a first LED segment and at least one further LED segment (12, 13, 14) mounted on a support (70, 80), which are connected in series, each LED segment comprising at least one LED, the LED string being powered by a rectified dimmable AC voltage, wherein the first LED segment is powered when the rectified dimmable AC voltage is above a first voltage level, and the first LED segment and the further LED segment are powered when the rectified AC voltage is above a second voltage level higher than the first voltage level, wherein the first LED segment is arranged on the support (70, 80) to radiate light to a first volume of the space, and the further LED segment is arranged on the support (70, 80) to radiate light to a second volume of the space, the first volume being at least partly different from the second volume, wherein, the rectified dimmable AC voltage is dimmed by an AC dimming device and therefore having the rectified dimmable AC voltage adjusted in function of the dimming ratio of the dimming device, wherein, the ratio of the properties of the light generated by the first LED segment and by the further LED segment changes with the dimming level of the rectified dimmable AC voltage, by selecting the LEDS segments to be powered in function of the level of the rectified dimmable AC voltage, and wherein an illuminated area lighting level changes with the dimming level of the rectified dimmable AC voltage.
Motor vehicle comprising, on each side: - a front foot reinforcement having a profile with a vertical portion, a horizontal portion and an angled portion between the vertical and horizontal portions, and a U-shaped cross section with tabs (21A, 21B) forming junction rabbets with a vertical inner profile and an inner spar; and - a spar reinforcement, generally rectilinear and having a U-shaped cross-section with lugs (25A, 25B) forming with the inner spar junction rabbets; the horizontal portion of the front foot reinforcement having, on a lower half, a recess of material, the spar reinforcement occupying said recess and forming with the inner spar the lower junction rebate up to the bent portion of said reinforcement, characterized in that the U-shaped cross section of the horizontal portion of the front foot reinforcement has a truncated core by the recess of material, the spar reinforcement comprising a portion terminal extending under, and being fixed to said core. - a front foot reinforcement having a profile with a vertical portion, a horizontal portion and an angled portion between the vertical and horizontal portions, and a U-shaped cross section with tabs (21A, 21B) forming junction rabbets with a vertical inner profile and an inner spar; and - a spar reinforcement, generally rectilinear and having a U-shaped cross-section with lugs (25A, 25B) forming with the inner spar junction rabbets;
A dimmable LED lighting means series (LMS, LMS') having at least two LED lighting means chains (LMK1, LMK2, LMK3) connected in parallel and/or anti-parallel having in each case a plurality of light-emitting diodes, wherein the LED lighting means series (LMS, LMS') further has a control unit and is fed via a supply, wherein the control unit is configured to receive a piece of dimming information supplied via the supply and to switch on and/or off in stages individual ones of the LED lighting means chains (LMK1, LMK2, LMK3) connected in parallel/anti-parallel depending on the supplied dimming information and for the implementation thereof, characterized in that each light-emitting diode can be bridged by in each case at least one switching element, which is provided in parallel thereto and can be switched by the control unit, wherein the light-emitting diodes and the switching elements are arranged for the bridging in a matrix structure, and wherein the control unit is configured, depending on the electrical supply of the LED lighting means series (LMS, LMS'), to switch on or off individual light-emitting diodes, which substantially share a coordinate in their spatial alignment in different LED lighting means chains (LMK1, LMK2, LMK3), by activating or deactivating the switching elements in the LED lighting means chains (LMK1, LMK2, LMK3).
A method for accurate and real time estimation of inspiratory plateau pressure "P plt " without using an end inspiratory pause, comprising: (a) receiving respiratory parameters of a patient from a device that interfaces with a patient pulmonary system and measures the respiratory parameters; (b) calculating, with a processor unit, the patient's expiratory time constant "τ E " using at least one respiratory parameter from step (a); and (c) calculating with the processor unit at least one estimate of P plt using at least one respiratory parameter from step (a) and the patient's τ E from step (b), wherein the respiratory parameters used at step (b) to calculate the patient's τ E is from exhalation and the at least one respiratory parameter used at step (c) to calculate the at least one estimate of P plt is from inspiration, wherein the at least one respiratory parameter used to calculate at least one estimate of P plt is from an inspiratory waveform at a single instance of time when respiratory effort is low, and wherein the single instance of time when respiratory effort is low is determined by: (i) calculating P plt curves throughout inhalation and utilizing the point where P plt was at its maximum, or (ii) calculating respiratory system compliance "C RS " throughout inhalation and utilizing the point where C RS was at its minimum. (a) receiving respiratory parameters of a patient from a device that interfaces with a patient pulmonary system and measures the respiratory parameters; (b) calculating, with a processor unit, the patient's expiratory time constant "τ E " using at least one respiratory parameter from step (a); and (c) calculating with the processor unit at least one estimate of P plt using at least one respiratory parameter from step (a) and the patient's τ E from step (b), (i) calculating P plt curves throughout inhalation and utilizing the point where P plt was at its maximum, or (ii) calculating respiratory system compliance "C RS " throughout inhalation and utilizing the point where C RS was at its minimum.
A method of installing a jacket for a wind turbine tower comprising the steps of; a. Providing a pre-installation subframe, b. Providing level sensors fitted to twoo the cross-braces of the pre-installation subframe; c. Providing a levelling system beneath each mudmat of the pre-installation subframe; d. Providing a sealing system within each pile guide of the pre-installation subframe, towards the upper end of each pile guide; e. Placing the pre-installation subframe upon the sea bed; f. Installing piles into the sea bed through the pile guides of the pre-installation subframe; g. Determining the highest lying mudmat by means of readings from the level sensors; h. Activating the levelling system beneath the highest lying mudmat so as to raise the mudmat and create a seal between the mudmat and the sea bed; i. Determining a second mudmat at the far end of a pre-installation subframe crossbrace fitted with a level sensor and also connected to the highest lying mudmat, and inflating the levelling bag beneath said second mudmat to raise this second mudmat until the said level sensor indicates that the attached pre-installation subframe cross-brace is horizontal; j. Activating the levelling system beneath the remaining mudmat until the other level sensor indicates that a second pre-installation subframe cross-brace is also horizontal; k. Activating the sealing system within each pile guide; l. Pumping grout into the gap between each pile guide and its associated installed pile. a. Providing a pre-installation subframe, b. Providing level sensors fitted to twoo the cross-braces of the pre-installation subframe; c. Providing a levelling system beneath each mudmat of the pre-installation subframe; d. Providing a sealing system within each pile guide of the pre-installation subframe, towards the upper end of each pile guide; e. Placing the pre-installation subframe upon the sea bed; f. Installing piles into the sea bed through the pile guides of the pre-installation subframe; g. Determining the highest lying mudmat by means of readings from the level sensors; h. Activating the levelling system beneath the highest lying mudmat so as to raise the mudmat and create a seal between the mudmat and the sea bed; i. Determining a second mudmat at the far end of a pre-installation subframe crossbrace fitted with a level sensor and also connected to the highest lying mudmat, and inflating the levelling bag beneath said second mudmat to raise this second mudmat until the said level sensor indicates that the attached pre-installation subframe cross-brace is horizontal; j. Activating the levelling system beneath the remaining mudmat until the other level sensor indicates that a second pre-installation subframe cross-brace is also horizontal; k. Activating the sealing system within each pile guide; l. Pumping grout into the gap between each pile guide and its associated installed pile.
Horological regulating device for a watch, comprising an oscillator, and comprising means for limiting the variation of rate of said oscillator in the different positions of said watch in space, said device comprising at least one tourbillon or a karussel, which comprises a carriage which is mounted such that it pivots about a carriage axis relative to a plate, which carries a fixed wheel when said regulating device comprises a tourbillon, which carriage carries said oscillator and comprises a carriage wheel arranged so as to be driven by an energy source of the watch or of a movement by way of a gear train, and which carriage carries an escapement mechanism arranged so as to engage with said oscillator, and comprising an escape pinion meshing with said fixed wheel when said regulating device comprises a tourbillon or meshing with a wheel of said gear train, when said regulating device comprises a karussel, in which said device is capable of blocking said oscillator and comprises stopping means with a stop wheel coaxial to said carriage wheel relative to which the angular mobility thereof is limited by a stop pin limited by a slot comprised in said carriage or a lower bridge comprised in said carriage, said stop wheel comprising a toothing arranged such that it engages with a control member external to said tourbillon or karussel for rotating said stop wheel under the effect of a movement exerted by said control member, and in which said carriage carries a resilient element, which is arranged so as to bear against a wheel set of said oscillator to stop the latter when said control member is in an active position wherein said stop wheel is in a first angular position relative to said carriage wheel, and which is arranged so as to remain remote from any wheel set of said oscillator when said control member is in a rest position, wherein said stop wheel is in a second angular position relative to said carriage wheel.
An apparatus, comprising: a plurality of light emitting diodes (LEDs); and a controller in communication with the plurality of LEDs, wherein said controller is configured to be in communication with a sink device and a host device; characterised in that said controller is further configured to identify a universal serial bus type C (USB-C) functionality of the sink device and the host device, wherein the controller operates at least one of the plurality of LEDs in accordance with one of a plurality of different LED operation profiles that is associated with the identified USB-C functionality of the sink device and the host device. a plurality of light emitting diodes (LEDs); and a controller in communication with the plurality of LEDs, wherein said controller is configured to be in communication with a sink device and a host device; characterised in that said controller is further configured to identify a universal serial bus type C (USB-C) functionality of the sink device and the host device, wherein the controller operates at least one of the plurality of LEDs in accordance with one of a plurality of different LED operation profiles that is associated with the identified USB-C functionality of the sink device and the host device.
A transmitting apparatus which is capable of performing both data transmission at a first frequency and the data transmission at a second frequency, the transmitting apparatus comprising: a transmitter configured to transmit a signal to be used by a receiving apparatus for measuring communication quality, in a first frequency band in a given portion of a first time period, and transmit the signal in a second frequency band in a given portion of a second time period coming after the first time period, the first frequency band having a wider bandwidth than a frequency band used for the data transmission and not including the first frequency, the second frequency band having a wider bandwidth than the frequency band used for the data transmission and not including the second frequency, characterised in that, when performing both transmission of the signal and the data transmission in the first time period and the second time period, the transmitter (1 a) is configured to perform the data transmission at the second frequency in the first time period except for the given portion used for the signal transmission, and perform the data transmission at the first frequency in the second time period except for the given portion used for the signal transmission. a transmitter configured to transmit a signal to be used by a receiving apparatus for measuring communication quality, in a first frequency band in a given portion of a first time period, and transmit the signal in a second frequency band in a given portion of a second time period coming after the first time period, the first frequency band having a wider bandwidth than a frequency band used for the data transmission and not including the first frequency, the second frequency band having a wider bandwidth than the frequency band used for the data transmission and not including the second frequency, characterised in that, when performing both transmission of the signal and the data transmission in the first time period and the second time period, the transmitter (1 a) is configured to perform the data transmission at the second frequency in the first time period except for the given portion used for the signal transmission, and perform the data transmission at the first frequency in the second time period except for the given portion used for the signal transmission.
Aircraft system component carrier module having: - a carrier element which is arc-shaped at least in some sections and is configured, when the aircraft system component carrier module is mounted in an aircraft, to extend at least in some sections substantially in the direction of the ribs of an aircraft structure over at least a section of a crown area of an aircraft cabin, - a transverse carrier element which is configured, when the aircraft system component carrier module is mounted in an aircraft, to extend in the crown area of an aircraft cabin substantially perpendicularly to a longitudinal axis of the aircraft cabin and, at least in some sections, substantially parallel to a transverse axis of the aircraft cabin, - a structure holder for fastening the aircraft system component carrier module to the aircraft structure, - an aircraft system component holder (34, 34') for fastening at least one aircraft system component (36, 36') to the aircraft system component carrier module and - an attaching device, connected to the transverse carrier element, for attaching an aircraft luggage compartment to the aircraft system component carrier module. - a carrier element which is arc-shaped at least in some sections and is configured, when the aircraft system component carrier module is mounted in an aircraft, to extend at least in some sections substantially in the direction of the ribs of an aircraft structure over at least a section of a crown area of an aircraft cabin, - a transverse carrier element which is configured, when the aircraft system component carrier module is mounted in an aircraft, to extend in the crown area of an aircraft cabin substantially perpendicularly to a longitudinal axis of the aircraft cabin and, at least in some sections, substantially parallel to a transverse axis of the aircraft cabin, - a structure holder for fastening the aircraft system component carrier module to the aircraft structure, - an aircraft system component holder (34, 34') for fastening at least one aircraft system component (36, 36') to the aircraft system component carrier module and - an attaching device, connected to the transverse carrier element, for attaching an aircraft luggage compartment to the aircraft system component carrier module.
A device for dosing and aerosolization of aerosolizable material comprising: a body with an aerosolization channel having a distal attachment portion connectable to a source of carrier gas which provides pressure pulses of the gas to the aerosolization channel and a proximal attachment portion for outputting aerosolized material towards a patient, above the aerosolization channel a reservoir for receiving aerosolizable material, the reservoir comprising outer walls and being connected in a gas-tight manner to the body and in fluid connection with the aerosolization channel, characterized in that the reservoir comprises an inner portion having a cylindrical wall and a conically tapering wall forming a funnel portion that are self-exciting membranes that can be put into oscillation by the pressure pulses, and that between the outer walls and the cylindrical and conical walls spaces (6, 7) are formed. a body with an aerosolization channel having a distal attachment portion connectable to a source of carrier gas which provides pressure pulses of the gas to the aerosolization channel and a proximal attachment portion for outputting aerosolized material towards a patient, above the aerosolization channel a reservoir for receiving aerosolizable material, the reservoir comprising outer walls and being connected in a gas-tight manner to the body and in fluid connection with the aerosolization channel, characterized in that the reservoir comprises an inner portion having a cylindrical wall and a conically tapering wall forming a funnel portion that are self-exciting membranes that can be put into oscillation by the pressure pulses, and that between the outer walls and the cylindrical and conical walls spaces (6, 7) are formed.
A field device for an industrial process comprising: an active component selected from the group consisting of a sensor configured to sense a process parameter, and a control device configured to control a process of the industrial process; characterized by: a switch electrically coupled to first and second terminals (154, 152) and configured to electrically connect the first and second terminals when in a closed state, and electrically disconnect the first and second terminals when in an open state; a switch monitor configured to detect a current state of the switch corresponding to one of the closed and open states, and generate a state output indicating the current state; and a controller configured to set the switch in one of the open and closed states, and generate a notification based on the state output that indicates at least one of the current state of the switch and a condition of the switch. an active component selected from the group consisting of a sensor configured to sense a process parameter, and a control device configured to control a process of the industrial process; characterized by: a switch electrically coupled to first and second terminals (154, 152) and configured to electrically connect the first and second terminals when in a closed state, and electrically disconnect the first and second terminals when in an open state; a switch monitor configured to detect a current state of the switch corresponding to one of the closed and open states, and generate a state output indicating the current state; and a controller configured to set the switch in one of the open and closed states, and generate a notification based on the state output that indicates at least one of the current state of the switch and a condition of the switch. a switch electrically coupled to first and second terminals (154, 152) and configured to electrically connect the first and second terminals when in a closed state, and electrically disconnect the first and second terminals when in an open state; a switch monitor configured to detect a current state of the switch corresponding to one of the closed and open states, and generate a state output indicating the current state; and a controller configured to set the switch in one of the open and closed states, and generate a notification based on the state output that indicates at least one of the current state of the switch and a condition of the switch.