mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit, IC, comprising: a substrate comprising active elements; a middle-of-line, MOL, layer disposed above the substrate ; a metal interconnect layer disposed over the MOL layer , the metal interconnect layer comprising a first metal conductive element and a second metal conductive element ; and an elongated via disposed in the MOL layer and connecting to the active elements in the substrate, the elongated via disposed in contact with the first metal conductive element and the second metal conductive element to interconnect the first metal conductive element and the second metal conductive element . a substrate comprising active elements; a middle-of-line, MOL, layer disposed above the substrate ; a metal interconnect layer disposed over the MOL layer , the metal interconnect layer comprising a first metal conductive element and a second metal conductive element ; and an elongated via disposed in the MOL layer and connecting to the active elements in the substrate, the elongated via disposed in contact with the first metal conductive element and the second metal conductive element to interconnect the first metal conductive element and the second metal conductive element .
Method for producing a tension member of a conveyor belt or a transport belt, wherein the tension member is constructed from at least one cable which is composed of a plurality of strands, said method comprising at least the following method steps: - introducing individual wires of a first strand into a stranding head of a stranding machine ; and - in a subsequent method step, applying at least one coating agent partially or completely to at least 50% of the individual wires of the first strand prior to twisting the individual wires to form the first strand , or simultaneously with twisting the individual wires to form the first strand , wherein the coating agent is based on an elastomer, and wherein chemical propellants and/or microspheres are mixed into the coating agent, and wherein the elastomer is a rubber, and wherein the rubber is selected from the group comprising styrene-butadiene rubber (SBR) and/or butadiene rubber (BR) and/or natural rubber (NR); and - twisting the individual wires to form the first strand ; and - making the cable from a plurality of strands, wherein at least one of the strands is the first strand . - introducing individual wires of a first strand into a stranding head of a stranding machine ; and - in a subsequent method step, applying at least one coating agent partially or completely to at least 50% of the individual wires of the first strand prior to twisting the individual wires to form the first strand , or simultaneously with twisting the individual wires to form the first strand , wherein the coating agent is based on an elastomer, and wherein chemical propellants and/or microspheres are mixed into the coating agent, and wherein the elastomer is a rubber, and wherein the rubber is selected from the group comprising styrene-butadiene rubber (SBR) and/or butadiene rubber (BR) and/or natural rubber (NR); and - twisting the individual wires to form the first strand ; and - making the cable from a plurality of strands, wherein at least one of the strands is the first strand .
A device for delivering shock waves to treat calcified lesions in a heart valve, comprising: an elongated flexible tube carried by a sheath , the tube having a fluid input end , the fluid input end of the tube being located near a proximal end of the sheath , and wherein the tube includes a loop portion , the loop portion being configured to be at least partially accommodated within a cusp of the heart valve , said tube being fillable with a conductive fluid via the fluid input end of the tube ; and an array of electrode pairs associated with a plurality of wires positioned within the loop portion , said electrode pairs being electrically connectable to a voltage source and configured to generate shock waves in the conductive fluid in response to voltage pulses. an elongated flexible tube carried by a sheath , the tube having a fluid input end , the fluid input end of the tube being located near a proximal end of the sheath , and wherein the tube includes a loop portion , the loop portion being configured to be at least partially accommodated within a cusp of the heart valve , said tube being fillable with a conductive fluid via the fluid input end of the tube ; and an array of electrode pairs associated with a plurality of wires positioned within the loop portion , said electrode pairs being electrically connectable to a voltage source and configured to generate shock waves in the conductive fluid in response to voltage pulses.
A method for control information transmission, comprising: performing , by a first device, transmission of first control information between the first terminal and a second device; the first control information being carried in a second control channel and being used to schedule transmission of a first control channel and a first data channel, the first control channel being used for transmission of Sidelink Control Information, SCI, the first data channel being used for transmission of Sidelink, SL, data, and transmission of the first data channel and the first control channel being in time division. performing , by a first device, transmission of first control information between the first terminal and a second device; the first control information being carried in a second control channel and being used to schedule transmission of a first control channel and a first data channel, the first control channel being used for transmission of Sidelink Control Information, SCI, the first data channel being used for transmission of Sidelink, SL, data, and transmission of the first data channel and the first control channel being in time division.
A method of processing a TiNi material to produce an implantable medical component, comprising: cold or warm working the TiNi material at least 15%, wherein the TiNi material consists: of nickel and titanium and nickel being present in an atomic percentage amount of 50.5-51.5%; or nickel and titanium with one or more of Co in a range of 0.01 to 3%, Al in a range of 0.01 to 2%, Fe in a range of 0.01 to 3% and Cr in a range of 0.1 to 2%; or 50at% or more nickel and titanium with 0.1 to 3% of one or more of Hf, Zr or Nb; thereafter, aging the cold or warm worked TiNi material under stress at between 300- 700°C; and thereafter, further aging the TiNi material below 300°C to produce a stress free M* s below a normal body temperature and a temperature separation of the stress free R*p and M* p of at least 30°C, wherein M*s signifies the temperature at which reversion to monoclinic Martensite starts, R*p signifies the temperature at which reversion to the R-phase is most rapid and M*p signifies the temperature at which reversion to the monoclinic Martensite phase is most rapid, wherein in use in-vivo the medical component contains at least some R-phase. cold or warm working the TiNi material at least 15%, wherein the TiNi material consists: of nickel and titanium and nickel being present in an atomic percentage amount of 50.5-51.5%; or nickel and titanium with one or more of Co in a range of 0.01 to 3%, Al in a range of 0.01 to 2%, Fe in a range of 0.01 to 3% and Cr in a range of 0.1 to 2%; or 50at% or more nickel and titanium with 0.1 to 3% of one or more of Hf, Zr or Nb; thereafter, aging the cold or warm worked TiNi material under stress at between 300- 700°C; and thereafter, further aging the TiNi material below 300°C to produce a stress free M* s below a normal body temperature and a temperature separation of the stress free R*p and M* p of at least 30°C, wherein M*s signifies the temperature at which reversion to monoclinic Martensite starts, R*p signifies the temperature at which reversion to the R-phase is most rapid and M*p signifies the temperature at which reversion to the monoclinic Martensite phase is most rapid, wherein in use in-vivo the medical component contains at least some R-phase.
A method for manufacturing a laminated substrate for epitaxial growth comprising a metal substrate and an oxide layer formed thereon, the method comprising: a step of preparing a crystal-oriented metal substrate exhibiting a c-axis orientation rate of 99% or higher on the outermost layer; and a step of forming an oxide layer on the metal substrate via RF magnetron sputtering by adjusting the angle formed by a perpendicular at a film formation position on the metal substrate and a line from the film formation position to a point at which the perpendicular magnetic flux density is zero on a target located at the position nearest to the film formation position to 15 degrees or less, wherein the surface of the metal substrate is provided in parallel with the surface of the target and wherein the oxide layer exhibits an in-plane orientation degree (Δφ) of 5.5 degrees or less and an out-of-plane orientation degree (Δω) of 6.8 or less, wherein the outermost layer of the metal substrate is composed of Ni or an Ni alloy, wherein the outermost layer exhibits an in-plane orientation degree (Δφ) of 6 degrees or less and an out-of-plane orientation degree (Δω) of 8 degrees or less, wherein the oxide layer is composed of CeO 2 and wherein the in-plane orientation degree (Δφ) and the out-of-plane orientation degree (Δω) can be measured with the use of EBSD and crystal direction analysis software as described in the description. a step of preparing a crystal-oriented metal substrate exhibiting a c-axis orientation rate of 99% or higher on the outermost layer; and a step of forming an oxide layer on the metal substrate via RF magnetron sputtering by adjusting the angle formed by a perpendicular at a film formation position on the metal substrate and a line from the film formation position to a point at which the perpendicular magnetic flux density is zero on a target located at the position nearest to the film formation position to 15 degrees or less, wherein the surface of the metal substrate is provided in parallel with the surface of the target and wherein the oxide layer exhibits an in-plane orientation degree (Δφ) of 5.5 degrees or less and an out-of-plane orientation degree (Δω) of 6.8 or less, wherein the outermost layer of the metal substrate is composed of Ni or an Ni alloy, wherein the outermost layer exhibits an in-plane orientation degree (Δφ) of 6 degrees or less and an out-of-plane orientation degree (Δω) of 8 degrees or less, wherein the oxide layer is composed of CeO 2 and wherein the in-plane orientation degree (Δφ) and the out-of-plane orientation degree (Δω) can be measured with the use of EBSD and crystal direction analysis software as described in the description.
A wafer-level method of fabricating optical assemblies , the method comprising: providing a wafer stack that includes a plurality of wafers stacked one over the other, the plurality of wafers including an optics wafer , wherein the optics wafer includes passive optical elements on at least one of its surfaces and subsequently molding spacers directly onto a surface of the optics wafer , wherein the spacers adhere to the surface of the optics wafer without adhesive; and forming the spacers by vacuum injection, wherein the vacuum injection includes injecting epoxy into spaces defined by a vacuum injection tool characterized in that during the vacuum injection, some of the epoxy is disposed along and surrounding the circumference of the respective wafers in the wafer stack . providing a wafer stack that includes a plurality of wafers stacked one over the other, the plurality of wafers including an optics wafer , wherein the optics wafer includes passive optical elements on at least one of its surfaces and subsequently molding spacers directly onto a surface of the optics wafer , wherein the spacers adhere to the surface of the optics wafer without adhesive; and forming the spacers by vacuum injection, wherein the vacuum injection includes injecting epoxy into spaces defined by a vacuum injection tool characterized in that during the vacuum injection, some of the epoxy is disposed along and surrounding the circumference of the respective wafers in the wafer stack .
A prepreg comprising: a thermosetting resin composition (C) comprising a thermosetting resin (A), and an inorganic filler (B); and a glass cloth (D) impregnated or coated with the thermosetting resin composition (C); wherein the glass cloth (D) satisfies the following expressions (I) to (III), x + y ≤ 95 1.9 < X + Y / x + y t ≤ 14 wherein the glass cloth (D) is defined by X (yarns/2.54 cm) representing number of warp yarn per 2.54 cm; Y (yarns/2.54 cm) representing number of weft yarn per 2.54 cm; x (filaments) representing number of filament per the warp yarn; y (filaments) representing number of filament per the weft yarn; and t (μm) representing the thickness of the glass cloth, and wherein a content of the inorganic filler (B) in the thermosetting resin composition (C) is from 110 to 700 parts by mass based on 100 parts by mass of the thermosetting resin (A), wherein X is from 80 to 105, Y is from 80 to 105, and an average value of the average filament diameter r (μm) of the warp yarn and the weft yarn is from 2.5 to 4.5 μm. a thermosetting resin composition (C) comprising a thermosetting resin (A), and an inorganic filler (B); and a glass cloth (D) impregnated or coated with the thermosetting resin composition (C); wherein the glass cloth (D) satisfies the following expressions (I) to (III), x + y ≤ 95 1.9 < X + Y / x + y t ≤ 14 wherein the glass cloth (D) is defined by X (yarns/2.54 cm) representing number of warp yarn per 2.54 cm; Y (yarns/2.54 cm) representing number of weft yarn per 2.54 cm; x (filaments) representing number of filament per the warp yarn; y (filaments) representing number of filament per the weft yarn; and t (μm) representing the thickness of the glass cloth, and wherein a content of the inorganic filler (B) in the thermosetting resin composition (C) is from 110 to 700 parts by mass based on 100 parts by mass of the thermosetting resin (A), wherein X is from 80 to 105, Y is from 80 to 105, and an average value of the average filament diameter r (μm) of the warp yarn and the weft yarn is from 2.5 to 4.5 μm.
A method of detecting a frame line of a parking space (PL1-5, PR1-5) from a captured image acquired by an image capture device (1a-d), comprising: detecting (S201) the frame line when a value of a parameter used for detection of the frame line falls within a first threshold range; estimating (S202) a position of an undetected frame line on a basis of a position of the detected frame line; setting (S203) a threshold range of the value of the parameter to a second threshold range wider than the first threshold range, the threshold range being used for detecting (S204) the frame line at the estimated position of the frame line, the frame line comprising a plurality of frame lines, the estimated position comprising a plurality of estimated positions; and setting the second threshold range so as to widen for each of the estimated positions of the frame lines as a distance between the estimated position of the frame line and the image capture device (1a-d) increases. detecting (S201) the frame line when a value of a parameter used for detection of the frame line falls within a first threshold range; estimating (S202) a position of an undetected frame line on a basis of a position of the detected frame line; setting (S203) a threshold range of the value of the parameter to a second threshold range wider than the first threshold range, the threshold range being used for detecting (S204) the frame line at the estimated position of the frame line, the frame line comprising a plurality of frame lines, the estimated position comprising a plurality of estimated positions; and setting the second threshold range so as to widen for each of the estimated positions of the frame lines as a distance between the estimated position of the frame line and the image capture device (1a-d) increases.
A shifting device , having a shifting shaft , a sleeve which is non-rotatably arranged on the shifting shaft , a signal transmitter support body for a signal transmitter, wherein the signal transmitter support body is axially secured via the sleeve on the shifting shaft , characterised in that the signal transmitter support body is radially secured directly on the shifting shaft.
A decanter centrifuge comprising a scroll conveyor rotatable around a preferably horizontal axis of rotation mounted substantially concentrically within a rotating bowl , the scroll conveyor comprising a hub and at least one helical winding, the hub including an inside surface and an outside surface, at least one passageway between the inside surface and the outside surface of the scroll conveyor and a feed pipe in the center of the scroll hub , wherein a number of nozzles provided extending from the inside of a feed chamber to the outside characterized in that on the inside surface of the scroll hub and between the nozzles around the circumference there is provided a number of accelerator inserts , wherein the accelerator inserts are exchangeable.
An apparatus comprising: a chassis ; a fixed support coupled to the chassis, the support having a first axis; a magnetic element movable relative to the support along the first axis; at least one conducting coil surrounding the first axis; and a current control block configured to generate current through the at least one conducting coil according to a current profile, characterised in that the current profile is designed to move the magnetic element along the first axis such that, over at least one cycle, the maximum acceleration of the magnetic element in one direction along the first axis is greater than the maximum acceleration of the magnetic element in the other direction along the first axis. a chassis ; a fixed support coupled to the chassis, the support having a first axis; a magnetic element movable relative to the support along the first axis; at least one conducting coil surrounding the first axis; and a current control block configured to generate current through the at least one conducting coil according to a current profile, characterised in that the current profile is designed to move the magnetic element along the first axis such that, over at least one cycle, the maximum acceleration of the magnetic element in one direction along the first axis is greater than the maximum acceleration of the magnetic element in the other direction along the first axis.
A polypeptide comprising the structure 2 wherein R1 is all or a part of a variable antigen-binding (Vab) domain of a single-domain antibody for an antigen, wherein the Vab is derived from camelid Vab, shark V-NAR, or a combination thereof; R2 is a CH3 domain of Human IgG; R3 is a CH2 domain of Human IgG; L1 and L2 are hinge regions having the sequence of SEQ ID NO:13 or a portion thereof; X and Y are bifunctional peptidyl, alkyl-, alkoxy-, aromatic, nucleotide linkers or a combination thereof; and wherein R4 and R5 are H. R1 is all or a part of a variable antigen-binding (Vab) domain of a single-domain antibody for an antigen, wherein the Vab is derived from camelid Vab, shark V-NAR, or a combination thereof; R2 is a CH3 domain of Human IgG; R3 is a CH2 domain of Human IgG; L1 and L2 are hinge regions having the sequence of SEQ ID NO:13 or a portion thereof; X and Y are bifunctional peptidyl, alkyl-, alkoxy-, aromatic, nucleotide linkers or a combination thereof; and wherein R4 and R5 are H.
An injection molded composite, comprising: a first bonding surface of a diene rubber composition bonded to a second bonding surface of a polar thermoplastic elastomer composition, wherein no more than 25% of the bonding surfaces have an adhesive therebetween, wherein the polar thermoplastic elastomer composition was injected against the first bonding surface to form the second bonding surface and wherein the first bonding surface has an active halogen moiety; characterized in that the injection molded composite forms at least a part of a non-pneumatic tire, the non-pneumatic tire comprising a tire tread having the first bonding surface and a tread support having the second bonding surface. a first bonding surface of a diene rubber composition bonded to a second bonding surface of a polar thermoplastic elastomer composition, wherein no more than 25% of the bonding surfaces have an adhesive therebetween, wherein the polar thermoplastic elastomer composition was injected against the first bonding surface to form the second bonding surface and wherein the first bonding surface has an active halogen moiety; characterized in that the injection molded composite forms at least a part of a non-pneumatic tire, the non-pneumatic tire comprising a tire tread having the first bonding surface and a tread support having the second bonding surface.
A spray head comprising at least two outlet channels arranged such that spray jets emerging from outlet orifices of at least two respective outlet channels meet centrally at a respective impact location spaced apart from the outlet orifices , characterized in that the outlet channels are formed in quartz glass over at least part of their lengths, the outlet channels each have an aspect ratio of 8 or less, preferably 5 or less, given as the quotient of the length of the outlet channel and the smallest diameter of the outlet channel, and the smallest diameter of each outlet channel is 50 μm or less. characterized in that the outlet channels are formed in quartz glass over at least part of their lengths, the outlet channels each have an aspect ratio of 8 or less, preferably 5 or less, given as the quotient of the length of the outlet channel and the smallest diameter of the outlet channel, and the smallest diameter of each outlet channel is 50 μm or less.
- A transport container provided with at least one foldable pillar jib crane , characterised in that herein the at least one pillar jib crane includes a pillar and a pivoting jib arranged at a first end, called upper end, of the pillar , the pillar jib crane including a foot arranged at a second end, called a lower end, of the pillar , the foot including a pivot interface intended to be connected to an installation device making it possible to switch the pillar jib crane from a position in which the pillar is substantially horizontal to a position in which the pillar is vertical, wherein securing means, such as clamps , secure the pillar to the container at an edge thereof, wherein the jib is foldable along the pillar in order to facilitate the installation thereof.
A corner connector for rod-shaped profile elements, having a connecting element , which comprises at least two connector sections which are oriented substantially perpendicularly with respect to one another and are configured in each case in such a way that in each case a connector section and a front end of the rod-shaped profile elements to be connected engage with one another, and a corner form by said connector sections , at least one transverse strut , the ends of which are configured in such a way that in each case one end of the transverse strut and one connecting section which is provided on a circumferential face of the rod-shaped profile elements to be connected engage into one another releasably, and a tensioning element which releasably acts on said transverse strut in such a way that during actuation of the tensioning element, the transverse strut pulls or presses the profile elements to be connected in the direction of the connecting element, characterized in that the tensioning element comprises a quick action tensioner which has a guide pin which passes through the transverse strut , one end of of which is mounted to the corner form by said connector sections and the other end of wich is connected to an eccentrically mounted tensioning lever , by way of which the transverse strut can be tensioned in the direction of the connecting element counter to the force of a restoring spring which is wound around the guide pin 42.