mhurhangee/ep-ind-claims huggingface dataset:
Method of detection of valley inductance current polarity change in a pulse width modulated circuit charged with an inductive charge, the method being characterised by the following steps: detecting and comparing respective times of reaching a predetermined voltage (Vbat/2, VDD/2) between respective outputs (3, 13), which are voltages at common node of transistors during a non-overlapping conduction period (Tnov1), of said charged circuit and of a pulse width modulated reference circuit with no inductive charge, the reference output of said reference circuit being configured to possess the same time characteristics as the output that would be generated by a zero valley inductance current of the charged circuit, and assessing the valley inductance current polarity change in the charged circuit according to the comparison result wherein a negative valley inductance current is assessed when said charged circuit reaches said predetermined voltage (Vbat/2, VDD/2) before said reference circuit, said charged circuit being then switched to pulse skipping mode, and wherein a positive valley inductance current is assessed when said reference circuit reaches said predetermined voltage (Vbat/2, VDD/2) before said charged circuit, said charged circuit being then kept in or switched back to pulse width modulation mode. detecting and comparing respective times of reaching a predetermined voltage (Vbat/2, VDD/2) between respective outputs (3, 13), which are voltages at common node of transistors during a non-overlapping conduction period (Tnov1), of said charged circuit and of a pulse width modulated reference circuit with no inductive charge, the reference output of said reference circuit being configured to possess the same time characteristics as the output that would be generated by a zero valley inductance current of the charged circuit, and assessing the valley inductance current polarity change in the charged circuit according to the comparison result wherein a negative valley inductance current is assessed when said charged circuit reaches said predetermined voltage (Vbat/2, VDD/2) before said reference circuit, said charged circuit being then switched to pulse skipping mode, and wherein a positive valley inductance current is assessed when said reference circuit reaches said predetermined voltage (Vbat/2, VDD/2) before said charged circuit, said charged circuit being then kept in or switched back to pulse width modulation mode.
A method for wireless communication at a user equipment, UE, comprising: identifying that the UE is operating in dual connectivity with a master cell group and a secondary cell group; receiving, from the master cell group, an indication of reserved transmission time intervals, TTIs, that are reserved for priority uplink, UL, communication with the master cell group; identifying additional TTIs that are available for UL communication with either the master cell group or the secondary cell group; transmitting one or more UL messages to the master cell group using the reserved TTIs; and transmitting one or more UL messages to either the master cell group or the secondary cell group using the additional TTIs. identifying that the UE is operating in dual connectivity with a master cell group and a secondary cell group; receiving, from the master cell group, an indication of reserved transmission time intervals, TTIs, that are reserved for priority uplink, UL, communication with the master cell group; identifying additional TTIs that are available for UL communication with either the master cell group or the secondary cell group; transmitting one or more UL messages to the master cell group using the reserved TTIs; and transmitting one or more UL messages to either the master cell group or the secondary cell group using the additional TTIs.
An ornamental article, facilitating a user to change the peripheral shape of the ornamental article, the ornamental article comprising: a) a main body, having a front face and a rear-body-face and a number of sides; b) at least one folding-element, having a front face, a rear-triangle-face, a pivoting-side and a tip disposed oppositely to said pivoting-side; c) a folding mechanism; and d) holding mechanisms for maintaining each one of said triangular folding-elements in either an open state position or a closed state position, wherein said folding mechanism facilitates the user to pivot said at least one folding-element with respect to said main body and thereby, change the peripheral shape of the ornamental article, as viewed from a distance; wherein when all of said folding-elements are unfolded, the ornamental article is in an open state; when all of said folding-elements are folded, the ornamental article is in a closed state; and when a portion of said folding-elements are folded, the ornamental article is in a semi-open state; characterized in that when said at least one folding-element is in a closed state said rear-triangle-face is disposed adjacently to said rear-body-face; and wherein said holding mechanism is a pair of magnets having opposing polarity, such that the magnetic force attracts said magnets to each other to thereby prevent said at least one folding-element from folding away from either said open state or said closed state. a) a main body, having a front face and a rear-body-face and a number of sides; b) at least one folding-element, having a front face, a rear-triangle-face, a pivoting-side and a tip disposed oppositely to said pivoting-side; c) a folding mechanism; and d) holding mechanisms for maintaining each one of said triangular folding-elements in either an open state position or a closed state position,
A composition comprising as constituents: a. at least 2 wt.-% of a vehicle; b. at least 42 wt.-% of Cu particles; each based on the weight of the total composition with the wt.-% of the constituents adding to 100 wt.-%; wherein the composition has color values of L* less than 60 and a* more than 14, each according to the L*a*b* color space, and wherein the Cu particles have an oxygen content in the range from 0.4 to 0.8 wt.-%, based on the total weight of the Cu particles, and wherein the oxygen content of the Cu particles is based on Cu oxide resulting from a heat treatment of Cu in an oxidizing atmosphere at a temperature ranging from 100 to 200 °C, characterized in that the composition further comprises Bi 2 O 3 in the range from 2 to 10 wt.-%, based on the weight of the total composition, and Cu oxide in the range from 0.01 to 0.5 wt.-%, based on the weight of the total composition. a. at least 2 wt.-% of a vehicle; b. at least 42 wt.-% of Cu particles;
High-pressure electrolyser assembly, comprising: - a pressure vessel having two dome-shaped ends; and - an electrolyser arranged inside the pressure vessel, wherein the pressure vessel is pressurized using an inert gas or a process gas of the electrolyser, characterized by - a ring-shaped support having a first abutting portion abutting against the electrolyser and a second abutting portion abutting against an inside of the pressure vessel, wherein at least one of the abutting portions is configured to slide. - a pressure vessel having two dome-shaped ends; and - an electrolyser arranged inside the pressure vessel, wherein the pressure vessel is pressurized using an inert gas or a process gas of the electrolyser, characterized by wherein the pressure vessel is pressurized using an inert gas or a process gas of the electrolyser, characterized by - a ring-shaped support having a first abutting portion abutting against the electrolyser and a second abutting portion abutting against an inside of the pressure vessel, wherein at least one of the abutting portions is configured to slide.
An article of footwear comprising: an upper configured to receive a foot of a user; and a sole structure attached to the upper and configured to support thereon the foot of the user, the sole structure including an outsole that defines a ground-engaging portion of the footwear, wherein the sole structure includes an outer surface of the sole structure, wherein the outer surface of the sole structure includes a plurality of distinctly shaped cavities, a plurality of distinctly shaped protrusions, and a plurality of distinctly shaped plastic fragments, all of which are erratically dispersed on the outer surface of the sole structure, and wherein the protrusions project in multiple directions from an outer peripheral surface and a ground-engaging surface of the sole structure. an upper configured to receive a foot of a user; and a sole structure attached to the upper and configured to support thereon the foot of the user, the sole structure including an outsole that defines a ground-engaging portion of the footwear, wherein the sole structure includes an outer surface of the sole structure, wherein the outer surface of the sole structure includes a plurality of distinctly shaped cavities, a plurality of distinctly shaped protrusions, and a plurality of distinctly shaped plastic fragments, all of which are erratically dispersed on the outer surface of the sole structure, and wherein the protrusions project in multiple directions from an outer peripheral surface and a ground-engaging surface of the sole structure.
A tissue closure device comprising three or more tissue engagement elements disposed substantially radially about a central junction, the tissue engagement elements being mounted with each other so as to be movable between a first compressed configuration, in which the tissue engagement elements are placed in apposition to each other and adapted to pass through a tissue opening to be closed; an expanded configuration in which the tissue engagement elements are adapted to span the opening and engage the surrounding tissue; and a second compressed configuration in which the tissue engagement elements are adapted to continue to engage the surrounding tissue and align with each other to bring the edges of the opening into apposition, characterised in that the tissue closure device assumes a planar geometry in the expanded configuration.
A method of measuring formation of a barrier to restrict or reduce movement of an electroactive species, the method comprising: providing an electrochemical cell (1,2,3) having a working electrode and a counter electrode spaced from the working electrode; providing a subject component, a testing component and at least one electroactive species within the cell, characterized in that the subject and testing components are intended to cause the formation of a barrier by an agglutination reaction to restrict or reduce movement of the electroactive species and the testing component is provided at the working electrode, and the method comprises applying a potential between the working electrode and the counter electrode sufficient to produce a current related to the rate of mass transport of the electroactive species being measured to the working electrode; and measuring the current at the working electrode to obtain a measure of the formation of the barrier to restrict or reduce movement of the electroactive species from the subject component and the testing component at the working electrode. providing an electrochemical cell (1,2,3) having a working electrode and a counter electrode spaced from the working electrode; providing a subject component, a testing component and at least one electroactive species within the cell, characterized in that the subject and testing components are intended to cause the formation of a barrier by an agglutination reaction to restrict or reduce movement of the electroactive species and the testing component is provided at the working electrode, and the method comprises applying a potential between the working electrode and the counter electrode sufficient to produce a current related to the rate of mass transport of the electroactive species being measured to the working electrode; and measuring the current at the working electrode to obtain a measure of the formation of the barrier to restrict or reduce movement of the electroactive species from the subject component and the testing component at the working electrode.
An apparatus for boring a wellbore, the wellbore containing a workstring concentrically positioned therein, the apparatus comprising: a bit body having a first end, an inner cavity, and a second end, wherein the first end is connected to the workstring, said workstring configured to deliver a rotational force to said bit body, wherein the inner cavity contains a profile having a first radial cam surface and wherein the second end includes a working face containing a cutting member; a pilot bit rotatively connected within the inner cavity and extending from the working face, said pilot bit including a first end and a second end, wherein the first end has a second radial cam surface operatively configured to cooperate with the first radial cam surface to deliver a hammering force, and wherein the second end of the pilot bit includes an engaging surface configured to engage a formation surrounding the wellbore; and wherein the bit body rotates at a higher rotation rate than the pilot bit; the apparatus characterized by: one or more rolling elements (127, 128) disposed between and in contact with the first radial cam surface and the second radial cam surface, and in that said engaging surface comprises an apex of a conical portion, said apex being offset from a center line of the bit body.
A method of producing a multi-layer ceramic substrate, the method comprising the steps of: preparing a first ceramic green sheet with a thermal expansion layer arranged thereon, and at least one second ceramic green sheet with no thermal expansion layer arranged thereon, the thermal expansion layer being formed and patterned on the first ceramic green sheet by a printing method with use of a thermal expansion layer paste; laminating the first and second ceramic green sheets with the thermal expansion layer sandwiched therebetween, thereby obtaining a green sheet laminate; pressure-bonding together the first ceramic green sheet and the at least one second ceramic green sheet of the green sheet laminate; heating and thereby expanding the thermal expansion layer at least in a thickness direction in the pressure-bonded green sheet laminate; extracting a portion of the green sheet laminate that has been displaced by the expansion of the thermal expansion layer, thereby forming a cavity in the green sheet laminate; and sintering the green sheet laminate with the cavity formed therein. preparing a first ceramic green sheet with a thermal expansion layer arranged thereon, and at least one second ceramic green sheet with no thermal expansion layer arranged thereon, the thermal expansion layer being formed and patterned on the first ceramic green sheet by a printing method with use of a thermal expansion layer paste; laminating the first and second ceramic green sheets with the thermal expansion layer sandwiched therebetween, thereby obtaining a green sheet laminate; pressure-bonding together the first ceramic green sheet and the at least one second ceramic green sheet of the green sheet laminate; heating and thereby expanding the thermal expansion layer at least in a thickness direction in the pressure-bonded green sheet laminate; extracting a portion of the green sheet laminate that has been displaced by the expansion of the thermal expansion layer, thereby forming a cavity in the green sheet laminate; and sintering the green sheet laminate with the cavity formed therein.
A method, implemented in a first node, that is in communication with a second node and a mobile device, the method comprising: determining a traffic type of a first traffic bearer within a packet data network connection between the second node and the mobile device; marking (904, 912) the first traffic bearer as movable or non-movable based on the determined traffic type; and in response to determining that the first traffic bearer has been marked as non-movable, marking all other traffic bearers in the packet data network connection between the second node and the mobile device as non-movable. determining a traffic type of a first traffic bearer within a packet data network connection between the second node and the mobile device; marking (904, 912) the first traffic bearer as movable or non-movable based on the determined traffic type; and in response to determining that the first traffic bearer has been marked as non-movable, marking all other traffic bearers in the packet data network connection between the second node and the mobile device as non-movable.
A section of fuselage for an aircraft comprising: a pressure bulkhead comprising a dome-shaped structure and at least one coupling structure extending from the edge of the dome-shaped structure, and at least one circumferential structure arranged on a skin of the section of fuselage, wherein the dome-shaped structure is secured to the circumferential structure via a distal portion of the coupling structure, wherein said distal portion is coupled to a foot portion of the circumferential structure, the coupling structure extending obliquely from the foot portion of the circumferential structure, such that the distance between the skin of the section of fuselage and the coupling structure increases from the foot portion to the edge of the dome-shaped structure. a pressure bulkhead comprising a dome-shaped structure and at least one coupling structure extending from the edge of the dome-shaped structure, and at least one circumferential structure arranged on a skin of the section of fuselage, wherein the dome-shaped structure is secured to the circumferential structure via a distal portion of the coupling structure, wherein said distal portion is coupled to a foot portion of the circumferential structure, the coupling structure extending obliquely from the foot portion of the circumferential structure, such that the distance between the skin of the section of fuselage and the coupling structure increases from the foot portion to the edge of the dome-shaped structure.
A machine, comprising a thermal expansion joint, wherein the thermal expansion joint comprises: a bottom portion configured to extend between a support structure and a trailing edge, the support structure being proximate to a heat source; a side portion, wherein a side portion top surface has a first wear surface; an overlapping portion coupled to the bottom portion, and extending from a flange portion towards the side portion, the overlapping portion overlaying and biased against the side portion to enable thermal expansion of the bottom portion, during heating, towards the flange portion and sliding, of the overlapping portion, along the side portion top surface to accommodate the thermal expansion, the overlapping portion being pre-formed to exert a compression bias against the side portion, such that the overlapping portion is sealingly engaged with the side portion to form a fluid tight seal, wherein an overlapping portion bottom surface has a second wear surface, the first wear surface and second wear surface are oppositely positioned with each other, such that the first wear surface mates with and slides against the second wear surface during thermal expansion; and wherein the side portion comprises a bottom surface and the bottom portion comprises a top surface, wherein the side portion bottom surface is positioned on the bottom portion top surface, such that the overlapping portion and the bottom portion extend towards the flange portion and slide along the side portion during heating to accommodate thermal expansion. a bottom portion configured to extend between a support structure and a trailing edge, the support structure being proximate to a heat source; a side portion, wherein a side portion top surface has a first wear surface; an overlapping portion coupled to the bottom portion, and extending from a flange portion towards the side portion, the overlapping portion overlaying and biased against the side portion to enable thermal expansion of the bottom portion, during heating, towards the flange portion and sliding, of the overlapping portion, along the side portion top surface to accommodate the thermal expansion, the overlapping portion being pre-formed to exert a compression bias against the side portion, such that the overlapping portion is sealingly engaged with the side portion to form a fluid tight seal, wherein an overlapping portion bottom surface has a second wear surface, the first wear surface and second wear surface are oppositely positioned with each other, such that the first wear surface mates with and slides against the second wear surface during thermal expansion; and wherein the side portion comprises a bottom surface and the bottom portion comprises a top surface, wherein the side portion bottom surface is positioned on the bottom portion top surface, such that the overlapping portion and the bottom portion extend towards the flange portion and slide along the side portion during heating to accommodate thermal expansion.
A cover for a micro-electromechanical component, wherein the cover comprises at least one layer (5,6,7) having a structuring (19, 20, 21, 22) with multiple elevations (8, 9, 15) and recesses (10, 11, 16), wherein the structuring serves the increasing of the mechanical stability of the cover; wherein the cover comprises multiple stacked layers (5,6,7), wherein the cover comprises a bottommost layer, one or more middle layers and a topmost layer, wherein a bottom side of the bottommost layer forms the bottom side of the cover and a top side of the topmost layer forms the top side of the cover; wherein the bottom side and the top side of the cover being free from elevations or recesses; wherein the structuring is formed in one of the middle layers and in the topmost layer; and wherein the one of the middle layers having on its top side its structuring with elevations and recesses; and wherein the topmost layer having on its bottom side its structuring with elevations and recesses, wherein the topmost layer is formed on its bottom side complementary to the top side of the one of the middle layers by completely filling the recesses in the one of the middle layers with the material of the topmost layer.
A method of calibrating a printer comprising: Printing an interferential pattern on a print medium; capturing data representative of the interferential pattern as printed on the print medium using an optical sensor; calibrating the printer based on the captured data, wherein the interferential pattern is based on a waveform that varies in amplitude along an axis perpendicular to a printing axis under calibration, and wherein the interferential pattern comprises repeated sets (220, 230, 240) of multiple patterns (250, 260) based on the waveform, the repeated sets (220, 230, 240) having a varying pattern spacing in the direction of the printing axis under calibration. Printing an interferential pattern on a print medium; capturing data representative of the interferential pattern as printed on the print medium using an optical sensor; calibrating the printer based on the captured data, wherein the interferential pattern is based on a waveform that varies in amplitude along an axis perpendicular to a printing axis under calibration, and wherein the interferential pattern comprises repeated sets (220, 230, 240) of multiple patterns (250, 260) based on the waveform, the repeated sets (220, 230, 240) having a varying pattern spacing in the direction of the printing axis under calibration.