mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a micro-electromechanical device within a cavity that has one or more electrodes, one or more pull-in electrodes and an RF electrode disposed in the substrate, wherein the RF electrode is disposed between a first electrode of the one or more electrodes and a second electrode of the one or more electrodes, the method comprising: depositing a first sacrificial layer over a dielectric layer; depositing a first structural layer over the first sacrificial layer, wherein the first structural layer is coupled to the first electrode of the one or more electrodes and the second electrode of the one or more electrodes; depositing a second sacrificial layer over the first structural layer; forming one or more first vias through the second sacrificial layer to expose at least a portion of the first structural layer; depositing a second structural layer within the one or more first vias and over the second sacrificial layer; depositing a third sacrificial layer over the second structural layer; and removing the first sacrificial layer, the second sacrificial layer and the third sacrificial layer to free the first structural layer and the second structural layer within the cavity. depositing a first sacrificial layer over a dielectric layer; depositing a first structural layer over the first sacrificial layer, wherein the first structural layer is coupled to the first electrode of the one or more electrodes and the second electrode of the one or more electrodes; depositing a second sacrificial layer over the first structural layer; forming one or more first vias through the second sacrificial layer to expose at least a portion of the first structural layer; depositing a second structural layer within the one or more first vias and over the second sacrificial layer; depositing a third sacrificial layer over the second structural layer; and removing the first sacrificial layer, the second sacrificial layer and the third sacrificial layer to free the first structural layer and the second structural layer within the cavity.
A method for manufacturing a microwave circulator comprising: - stacking a first cell (C 1)and a second cell (C 2); - producing the first cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material, and the second cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material; - producing access tracks (1, 2) connected to two access ports (P1, P2), and a connection track connected to a connection port on one of the faces, called active face, of said first cell, - producing access tracks (3, 4) connected to two access ports (P3, P4), and a connection track connected to a connection port (P5') on one of the faces, called active face, of said second cell, - the two access ports (P 1, P 2) of the first cell (C 1)being located on two opposite sides of said first cell and the two access ports (P 3, P 4) of the second cell (C 2) being positioned on one side of the second cell located perpendicular to the sides on which the two ports (P 1, P 2) of the first cell are positioned; - producing a ground plane (P M) on one of the faces opposite one of the active faces of said cells; - assembling said first cell and said second cell; - producing a connection (C 1-2) between the connection track of said first cell and the connection track of said second cell; - a step of co-sintering for securing the structure of the circulator in the three dimensions. - stacking a first cell (C 1)and a second cell (C 2); - producing the first cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material, and the second cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material; - producing access tracks (1, 2) connected to two access ports (P1, P2), and a connection track connected to a connection port on one of the faces, called active face, of said first cell, - producing access tracks (3, 4) connected to two access ports (P3, P4), and a connection track connected to a connection port (P5') on one of the faces, called active face, of said second cell, - the two access ports (P 1, P 2) of the first cell (C 1)being located on two opposite sides of said first cell and the two access ports (P 3, P 4) of the second cell (C 2) being positioned on one side of the second cell located perpendicular to the sides on which the two ports (P 1, P 2) of the first cell are positioned; - producing a ground plane (P M) on one of the faces opposite one of the active faces of said cells; - assembling said first cell and said second cell; - producing a connection (C 1-2) between the connection track of said first cell and the connection track of said second cell; - a step of co-sintering for securing the structure of the circulator in the three dimensions.
A process for synthesizing essentially linear, saturated C5+ hydrocarbons, consisting of bringing a feed comprising synthesis gas into contact with at least one catalyst the active phase of which comprises at least one metal from group VIII deposited on a support formed by at least one oxide, said catalyst being prepared using a process comprising at least: i) at least one step for bringing at least said support into contact with at least one solution containing at least one precursor of said metal from group VIII; ii) at least one step for bringing at least said support into contact with at least one organic compound formed from at least one cyclic oligosaccharide composed of at least 6 α-(1,4)-bonded glucopyranose subunits; iii) at least one calcining step to obtain at least said metal from group VIII in the oxide form; the steps i) and ii) possibly being carried out separately, in any order, or simultaneously. i) at least one step for bringing at least said support into contact with at least one solution containing at least one precursor of said metal from group VIII; ii) at least one step for bringing at least said support into contact with at least one organic compound formed from at least one cyclic oligosaccharide composed of at least 6 α-(1,4)-bonded glucopyranose subunits; iii) at least one calcining step to obtain at least said metal from group VIII in the oxide form;
A method of manufacturing liquid-filled capsules for use in smoking articles, the method comprising the steps of: providing a capsule shell defining a cavity and having an open end; dispensing a volume of liquid into the cavity through the open end of the shell, whereby a space or clearance (δ) is provided between an upper surface of the liquid dispensed into the cavity and the open end of the shell; and sealing the open end of the shell with a portion of sheet material to provide a liquid-filled capsule containing the volume of liquid, wherein the step of sealing the open end of the shell comprises: covering the open end of the capsule shell with the portion of sheet material; fusing or bonding the portion of sheet material to a rim of the shell to seal said end of the shell; and contouring the rim of the shell's end with a rotary blade cutter of a cutting device while cutting excess sheet material from the portion of sheet material at the sealed end of the shell. providing a capsule shell defining a cavity and having an open end; dispensing a volume of liquid into the cavity through the open end of the shell, whereby a space or clearance (δ) is provided between an upper surface of the liquid dispensed into the cavity and the open end of the shell; and sealing the open end of the shell with a portion of sheet material to provide a liquid-filled capsule containing the volume of liquid, covering the open end of the capsule shell with the portion of sheet material; fusing or bonding the portion of sheet material to a rim of the shell to seal said end of the shell; and contouring the rim of the shell's end with a rotary blade cutter of a cutting device while cutting excess sheet material from the portion of sheet material at the sealed end of the shell.
A manufacturing method for printed circuit boards (1, 10) including the steps of: a) inkjet printing a UV free radical curable inkjet ink on a substrate, wherein the viscosity of the UV free radical curable inkjet ink is smaller than 90 mPa.s at 25°C and at a shear rate of 1,000 s -1; b) UV curing the UV free radical curable inkjet ink on the inkjet printed substrate; and c) applying a thermal treatment on the UV cured inkjet printed substrate; wherein the UV free radical curable inkjet ink contains at least a colorant, a free radical photoinitiator; a duofunctional monomer or oligomer and a polyfunctional monomer or oligomer; and 1 to 15 wt% of a silane compound according to Formula: wherein, the linking group L represents a -CH 2 - group or an aliphatic chain having 2 to 10 carbon atoms optionally substituted in the aliphatic chain by a nitrogen or an oxygen; R1 represents a methoxy group; R2 and R3 independently represent a methoxy group or a C 1 - to C 4 -alkyl group; and R4 represents a functional group selected from the group consisting of an epoxy group, an amine group, a carbamate group, a trimethoxy silane group and an ureido group, wherein the substrate is a polyimide substrate. a) inkjet printing a UV free radical curable inkjet ink on a substrate, wherein the viscosity of the UV free radical curable inkjet ink is smaller than 90 mPa.s at 25°C and at a shear rate of 1,000 s -1; b) UV curing the UV free radical curable inkjet ink on the inkjet printed substrate; and c) applying a thermal treatment on the UV cured inkjet printed substrate; wherein the UV free radical curable inkjet ink contains at least a colorant, a free radical photoinitiator; a duofunctional monomer or oligomer and a polyfunctional monomer or oligomer; and 1 to 15 wt% of a silane compound according to Formula: wherein, the linking group L represents a -CH 2 - group or an aliphatic chain having 2 to 10 carbon atoms optionally substituted in the aliphatic chain by a nitrogen or an oxygen; R1 represents a methoxy group; R2 and R3 independently represent a methoxy group or a C 1 - to C 4 -alkyl group; and R4 represents a functional group selected from the group consisting of an epoxy group, an amine group, a carbamate group, a trimethoxy silane group and an ureido group, wherein the substrate is a polyimide substrate. the linking group L represents a -CH 2 - group or an aliphatic chain having 2 to 10 carbon atoms optionally substituted in the aliphatic chain by a nitrogen or an oxygen; R1 represents a methoxy group; R2 and R3 independently represent a methoxy group or a C 1 - to C 4 -alkyl group; and R4 represents a functional group selected from the group consisting of an epoxy group, an amine group, a carbamate group, a trimethoxy silane group and an ureido group, wherein the substrate is a polyimide substrate.
An electronic circuit module comprising a substrate and a connector which is at least surface-mounted on the substrate, wherein the substrate includes a first recessed portion shaped so as to be open toward an outer periphery of the substrate and including second recessed portions so as to prevent the connector engaging with the first recessed portion from moving sideways, and a conductive pattern on an edge portion of the first recessed portion, the connector includes a body, and terminals which are surface-mounted on the substrate and protrude from the body, the connector is mounted on the substrate such that a bottom of the terminals is positioned higher than a bottom of the body by a predetermined height, the connector is mounted on the substrate such that the body is disposed in the first recessed portion and the terminals contact the conductive pattern on the substrate, the predetermined height is determined such that a bottom of the substrate is flush with the bottom of the body when the connector is mounted on the substrate, and the connector includes projections shaped so as to correspond to the second recessed portions, and the projections are disposed at positions corresponding to the second recessed portions when the connector is mounted on the substrate, wherein the body has a protrusion portion at a position at which the terminals protrude, the protrusion portion having a bottom positioned higher than the bottom of the body by the predetermined height, the connector is mounted on the substrate such that the protrusion portion engages with the substrate, characterised in that the terminals protrude from the protrusion portion.
A foveated display apparatus (100; 200; 200A; 200B; 300; 610; 710; 751) comprising: a first display panel (110; 210; 311) configured to form a two-dimensional, 2D, image; a second display panel (120; 220; 220a; 312) configured to form a hologram image comprising a three-dimensional, 3D, image; a light guide plate (130; 230; 330) configured to transmit the 2D image at a first angle of view to an eye of a user; and characterized by comprising a holographic optical element (125; 225; 350) configured to transmit the hologram image at a second angle of view (θ2) to the eye of the user, the second angle of view (θ2) being smaller than the first angle of view (θ1). a first display panel (110; 210; 311) configured to form a two-dimensional, 2D, image; a second display panel (120; 220; 220a; 312) configured to form a hologram image comprising a three-dimensional, 3D, image; a light guide plate (130; 230; 330) configured to transmit the 2D image at a first angle of view to an eye of a user; and characterized by comprising a holographic optical element (125; 225; 350) configured to transmit the hologram image at a second angle of view (θ2) to the eye of the user, the second angle of view (θ2) being smaller than the first angle of view (θ1).
A light fixture having - a light source for generating a light, - a translucent cover element for the passage of the light, wherein the cover element has a light output surface lying in a plane, - a frame element, wherein the cover element is arranged retained by the frame element, - an additional element in the form of an emergency lighting element and/or an emitter element or receiving element for emitting and/or receiving electromagnetic radiation, wherein the additional element is arranged retained by means of a bracket relative to the frame element and wherein the cover element has a receptacle for the additional element on a side opposite the light output surface, in which the additional element is arranged at least partially engagingly, wherein the receptacle is formed by a recess or at least a stop element, characterized in that the bracket is designed in such a way that the additional element is arranged mounted parallel to the plane in a floating manner relative to the frame element. - a light source for generating a light, - a translucent cover element for the passage of the light, wherein the cover element has a light output surface lying in a plane, - a frame element, wherein the cover element is arranged retained by the frame element, - an additional element in the form of an emergency lighting element and/or an emitter element or receiving element for emitting and/or receiving electromagnetic radiation, wherein the additional element is arranged retained by means of a bracket relative to the frame element
A fully differential class D-amplifier for amplifying an input signal applied to a differential signal input of said amplifier for generating an amplified signal output by a differential signal output(28a, 28b) of said amplifier comprising: (a) a comparator for comparing the applied input signal with a self oscillating switch signal to generate a pulse width modulated signal; (b) a driving unit for amplifying the pulse width modulated signal to generate the amplified output signal; and (c) a feedback circuit for generating the self oscillating switch signal for the comparator, wherein the feedback circuit is formed by a self oscillating loop with a pair of first resistors (29a, 29b), a first capacitor, a pair of second resistors (33a, 33b), a pair of second capacitors (31a, 31b), and a pair of third resistors (34a, 34b); and wherein the differential signal output (28a, 28b) comprises a first output terminal and a second output terminal, wherein one of the first resistors (29a, 29b), the first capacitor, and another one of the first resistors (29a, 29b) are connected in series between the output terminals (28a, 28b) of the differential signal output, and each one of the second capacitors (31a, 31b) is connected in parallel with a respective terminal of the first capacitor and a ground terminal, wherein the first output terminal is fedback via the one of the first resistors and one of the second resistors (33a, 33b) to an inverting input of the comparator and the second output terminal is fedback via the another one of the first resistors and another one of the second resistors (33a, 33b) to a non inverting input of the comparator. (a) a comparator for comparing the applied input signal with a self oscillating switch signal to generate a pulse width modulated signal; (b) a driving unit for amplifying the pulse width modulated signal to generate the amplified output signal; and (c) a feedback circuit for generating the self oscillating switch signal for the comparator, wherein the feedback circuit is formed by a self oscillating loop with a pair of first resistors (29a, 29b),
A lithium secondary battery comprising a positive electrode, a negative electrode and a non-aqueous electrolyte, wherein one of the positive electrode and the negative electrode is an iron oxide film-coated electrode employing a configuration in which an iron oxide film capable of reversibly absorbing and desorbing lithium is retained on an electrically conductive base, and the iron oxide film contains α-Fe 2 O 3 crystals, and characterized in that the base has a roughened surface having a surface roughness Rz of 3 μm or more, and the iron oxide film is provided on the roughened surface, and wherein the thickness TA of the iron oxide film is 0.1 μm to 5 μm and is smaller than the Rz value of the roughened surface. one of the positive electrode and the negative electrode is an iron oxide film-coated electrode employing a configuration in which an iron oxide film capable of reversibly absorbing and desorbing lithium is retained on an electrically conductive base, and the iron oxide film contains α-Fe 2 O 3 crystals, and characterized in that the base has a roughened surface having a surface roughness Rz of 3 μm or more, and the iron oxide film is provided on the roughened surface, and wherein the thickness TA of the iron oxide film is 0.1 μm to 5 μm and is smaller than the Rz value of the roughened surface.
A battery comprising: a cathode having a cathode active-material coating layer provided on at least one surface of a cathode collector; and an anode having an anode active-material coating layer provided on at least one surface of an anode collector, the cathode and anode being wound to face each other with a separator interposed there between, characterized in that both upper and lower surfaces of the cathode collector are provided with cathode active-material coating layers so as not to provide a cathode uncoated part at a winding beginning portion of the cathode, and the cathode uncoated part for installation of a cathode lead is provided only at a winding ending portion of the cathode, an insulator tape is attached to the boundary of the cathode active-material coating layer facing the anode at the winding ending portion of the cathode, and in that the cathode lead and an anode lead of the battery are arranged in opposite directions.
A femoral cutting guide (20, 120) comprising: a plurality of guide slots (22, 24, 26, 28) for guiding the movement of cutting tools relative to a distal portion of a femur; a surface feature adapted to at least partially conform to a resected surface of the distal portion of the femur; a posterior-facing surface which is undulating to conform to an anterior, unaltered surface of the distal portion of the femur and an anterior-facing surface which is undulating to conform to a posterior, unaltered surface of the distal portion of the femur, wherein the anterior, unaltered surface of the distal portion of the femur comprises anterior sulcus and patello-femoral groove portions of the distal portion of the femur and further wherein the posterior, unaltered surface of the distal portion of the femur comprises a posterior sulcus portion of the distal portion of the femur. a plurality of guide slots (22, 24, 26, 28) for guiding the movement of cutting tools relative to a distal portion of a femur; a surface feature adapted to at least partially conform to a resected surface of the distal portion of the femur; a posterior-facing surface which is undulating to conform to an anterior, unaltered surface of the distal portion of the femur and an anterior-facing surface which is undulating to conform to a posterior, unaltered surface of the distal portion of the femur, wherein the anterior, unaltered surface of the distal portion of the femur comprises anterior sulcus and patello-femoral groove portions of the distal portion of the femur and further wherein the posterior, unaltered surface of the distal portion of the femur comprises a posterior sulcus portion of the distal portion of the femur.
A method for detecting an analyte in a sample, comprising: a) capturing a series of two or more images of a nanostructured sensor surface comprising two or more metallic layers and a dielectric material between said metallic layers, wherein the nanostructured sensor surface is capable of sustaining a localized surface plasmon resonance; b) randomly selecting one or more corresponding regions of interest in the series of two or more images; c) measuring a change in RGB value or greyscale value within the selected regions of interest over the series of two or more images; and d) detecting an analyte based on the measured changes in RGB value or greyscale value. a) capturing a series of two or more images of a nanostructured sensor surface comprising two or more metallic layers and a dielectric material between said metallic layers, wherein the nanostructured sensor surface is capable of sustaining a localized surface plasmon resonance; b) randomly selecting one or more corresponding regions of interest in the series of two or more images; c) measuring a change in RGB value or greyscale value within the selected regions of interest over the series of two or more images; and d) detecting an analyte based on the measured changes in RGB value or greyscale value.
A method of forming a sealing structure including a spline seal in a turbine component having a spline seal slot, the spline seal slot including walls (34, 36) defining an opening therebetween, the method comprising using an additive manufacturing process to form a neck structure on at least one of the walls (34, 36) so as to reduce a size of the opening; characterized by positioning a turbine component such that powder can be contained by the spline seal slot; adding powder to the spline seal slot until the powder is at a predetermined level relative to the walls (34, 36); and selectively fusing a portion of an uppermost layer of the powder; depositing an additional layer of powder on the uppermost layer of powder; and fusing at least some of the additional layer of powder to at least a portion of the fused section of the previous layer; fusing a part of a layer of powder to at least one of the walls (34, 36); and repeating in a cycle the steps of depositing and fusing to build up the structure in a layer-by-layer fashion.