mhurhangee/ep-ind-claims huggingface dataset:
A micromirror actuator assembly, comprising: a lower printed circuit board, PCB; an upper board; a frame spaced away from the lower PCB and spaced away from the upper board between the lower PCB and the upper board; a micromirror rotatably attached to the frame; one or more lower spacers (108A, 108B) between the frame and the lower PCB; a plurality of piezoelectric actuators (116A, 116B) affixed to the frame and configured to selectively deform the frame to scan the micromirror; and adhesive affixing the one or more lower spacers to the lower PCB; characterised in that the upper board is an upper PCB, and the adhesive is a conductive adhesive enabling electrical conduction between the lower PCB and the plurality of piezoelectric actuators. a lower printed circuit board, PCB; an upper board; a frame spaced away from the lower PCB and spaced away from the upper board between the lower PCB and the upper board; a micromirror rotatably attached to the frame; one or more lower spacers (108A, 108B) between the frame and the lower PCB; a plurality of piezoelectric actuators (116A, 116B) affixed to the frame and configured to selectively deform the frame to scan the micromirror; and adhesive affixing the one or more lower spacers to the lower PCB; characterised in that the upper board is an upper PCB, and the adhesive is a conductive adhesive enabling electrical conduction between the lower PCB and the plurality of piezoelectric actuators.
A method of characterizing whether a prostate disease is prostate cancer or benign hyperplasia, comprising the steps of: a. measuring a level of a miRNA in a serum sample, wherein the miRNA is miR-125b; and b. detecting whether the level of miR-125b is elevated in the sample, thereby characterizing prostate disease in the patient as prostate cancer if the level is elevated. a. measuring a level of a miRNA in a serum sample, wherein the miRNA is miR-125b; and b. detecting whether the level of miR-125b is elevated in the sample, thereby characterizing prostate disease in the patient as prostate cancer if the level is elevated.
A hoof boot for use on a hoof, the hoof boot comprising: A. a base including a sole and a front that at least partially covers lateral and anterior surfaces of the hoof; B. a heel captivator; C. a coupling mechanism for coupling the base to the heel captivator and allowing vertical movement of the heel captivator relative to the base after coupling; characterized in that the boot further comprises D. a pair of inertia straps that couples the heel captivator to the front of the base wherein each strap has a first end and a second end wherein the first end is adjustably coupled to the heel captivator and the second end is removably coupled to the front of the base. A. a base including a sole and a front that at least partially covers lateral and anterior surfaces of the hoof; B. a heel captivator; C. a coupling mechanism for coupling the base to the heel captivator and allowing vertical movement of the heel captivator relative to the base after coupling; characterized in that the boot further comprises D. a pair of inertia straps that couples the heel captivator to the front of the base wherein each strap has a first end and a second end wherein the first end is adjustably coupled to the heel captivator and the second end is removably coupled to the front of the base.
An electrode having a superior light transmittance, comprising: a substrate; an amine group-containing compound layer formed on the substrate; a metal layer formed on the amine group-containing compound layer; an anti-reflection layer formed on the metal layer; and characterized in that the said anti-reflection layer is made of one selected from poly[(9,9-bis(3'-(N,N-dimethylamino)propyl)-2,7-fluorene)-alt-2,7-(9,9-dioctylfluorene), poly(9,9-bis(4'-sulfonatobutyl)(fluorine-alt-co-1,4-phenylene, poly(styrenesulfonic acid), poly(p-quaterphenylene-2,2'-dicarboxylic acid), diphenyl fluorine derivative, tetrakis(1-imidazolyl)borate (Bim4-), and a combination thereof. a substrate; an amine group-containing compound layer formed on the substrate; a metal layer formed on the amine group-containing compound layer; an anti-reflection layer formed on the metal layer; and characterized in that the said anti-reflection layer is made of one selected from poly[(9,9-bis(3'-(N,N-dimethylamino)propyl)-2,7-fluorene)-alt-2,7-(9,9-dioctylfluorene), poly(9,9-bis(4'-sulfonatobutyl)(fluorine-alt-co-1,4-phenylene, poly(styrenesulfonic acid), poly(p-quaterphenylene-2,2'-dicarboxylic acid), diphenyl fluorine derivative, tetrakis(1-imidazolyl)borate (Bim4-), and a combination thereof.
Make-up pencil mold comprising a tubular body associated with a cup-shaped element at a bottom thereof, a reducer inserted inside of the tubular body, and a casing of a make-up pencil having a through cavity configured to contain at least partially a cast make-up pencil, the casing being inserted inside the reducer and being sealedly coupled to the cup-shaped element, the cup-shaped element comprising a support structure made of rigid material, bound to a casting structure made of silicone, the casting structure having a shaped cavity configured to contain the cast make-up product so as to form a tip of the make-up pencil once the make-up product has solidified.
Antenna arrangement for receiving and/or transmitting electromagnetic signals in at least two spaced-apart frequency bands including a first frequency band having a first centre frequency and a second frequency band having a second centre frequency, comprising: - a first and third set of antenna elements, being arranged as a first and third column and aligned along a first and third symmetry axis, respectively, the first column comprising adjacent dual band elements (41a-41e) being operative in said first frequency band and in said second frequency band, - a second set of antenna elements (43a-e), being arranged as a second intermediate column along a second symmetry axis, said second symmetry axis being parallel to said first and third symmetry axes, and being operative in said second frequency band, - the ratio of said second centre frequency to said first centre frequency being in the range 1.5 to 3, - the distance (c) between said first and third symmetry axes being less than or equal to 0.6 times the wavelength of said first centre frequency, - the distance (d1, d2) between said second and said first and third symmetry axis, respectively, being less than or equal to 0.6 times the wavelength of said second centre frequency, wherein said symmetry axes are arranged on a common plane, - characterised in that - the third column comprising adjacent dual band elements (42a-42e) is operative in said first frequency band and in said second frequency band, - said antenna elements are patch antenna elements and - said antenna elements being operative in said first frequency band have a substantially octagonal design. - a first and third set of antenna elements, being arranged as a first and third column and aligned along a first and third symmetry axis, respectively, the first column comprising adjacent dual band elements (41a-41e) being operative in said first frequency band and in said second frequency band, - a second set of antenna elements (43a-e), being arranged as a second intermediate column along a second symmetry axis, said second symmetry axis being parallel to said first and third symmetry axes, and being operative in said second frequency band, - the ratio of said second centre frequency to said first centre frequency being in the range 1.5 to 3, - the distance (c) between said first and third symmetry axes being less than or equal to 0.6 times the wavelength of said first centre frequency, - the distance (d1, d2) between said second and said first and third symmetry axis, respectively, being less than or equal to 0.6 times the wavelength of said second centre frequency, wherein said symmetry axes are arranged on a common plane, - characterised in that - the third column comprising adjacent dual band elements (42a-42e) is operative in said first frequency band and in said second frequency band, - said antenna elements are patch antenna elements and - said antenna elements being operative in said first frequency band have a substantially octagonal design.
A method of making customized orthodontic brackets, the method comprising the steps of: - providing a plurality of individually shaped customized orthodontic bracket precursors (10a, 10b, 10c); - building up one or more support structures using additive material manufacturing; and - building up the bracket precursors on the one or more support structures using additive material manufacturing; - positioning the bracket precursors with the one or more support structures in a machining device; - using the machining device to provide an archwire slot in each bracket precursor by material removal with the archwire slots aligned along a common path with each other, and thereby provide a plurality of brackets; and - separating the one or more support structures and the brackets from each other. - providing a plurality of individually shaped customized orthodontic bracket precursors (10a, 10b, 10c); - building up one or more support structures using additive material manufacturing; and - building up the bracket precursors on the one or more support structures using additive material manufacturing; - positioning the bracket precursors with the one or more support structures in a machining device; - using the machining device to provide an archwire slot in each bracket precursor by material removal with the archwire slots aligned along a common path with each other, and thereby provide a plurality of brackets; and - separating the one or more support structures and the brackets from each other.
A coating composition comprising: non-melt-fabricable polytetrafluoroethylene, wherein non-melt-fabricable refers to a property that the melt flow rate cannot be measured in conformity with ASTM D1238 and D2116 at a temperature higher than the crystallization melting point; a fluorine-containing polymer other than the non-melt-fabricable polytetrafluoroethylene; and a heat-resistant resin other than the non-melt-fabricable polytetrafluoroethylene or the fluorine-containing polymer, the non-melt-fabricable polytetrafluoroethylene being contained in an amount of 10 to 60% by mass relative to the amount of the fluorine-containing polymer, wherein the fluorine-containing polymer is at least one selected from the group consisting of low-molecular-weight polytetrafluoroethylene having a melt viscosity at 380°C of 1 to 1 x 10 7 Pa·s measured in conformity with ASTM D 1238 and a tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer, wherein the heat-resistant resin is at least one selected from the group consisting of a polyamide-imide resin, a polyimide resin, a polyethersulfone resin, a polyether imide resin, a polyether ether ketone resin, an aromatic polyester resin, and a polyarylene sulfide resin, and wherein the amount of the heat-resistant resin is 15 to 85% by mass relative to the total amount of the non-melt-fabricable polytetrafluoroethylene and the fluorine-containing polymer. non-melt-fabricable polytetrafluoroethylene, wherein non-melt-fabricable refers to a property that the melt flow rate cannot be measured in conformity with ASTM D1238 and D2116 at a temperature higher than the crystallization melting point; a fluorine-containing polymer other than the non-melt-fabricable polytetrafluoroethylene; and a heat-resistant resin other than the non-melt-fabricable polytetrafluoroethylene or the fluorine-containing polymer, the non-melt-fabricable polytetrafluoroethylene being contained in an amount of 10 to 60% by mass relative to the amount of the fluorine-containing polymer, wherein the fluorine-containing polymer is at least one selected from the group consisting of low-molecular-weight polytetrafluoroethylene having a melt viscosity at 380°C of 1 to 1 x 10 7 Pa·s measured in conformity with ASTM D 1238 and a tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer, wherein the heat-resistant resin is at least one selected from the group consisting of a polyamide-imide resin, a polyimide resin, a polyethersulfone resin, a polyether imide resin, a polyether ether ketone resin, an aromatic polyester resin, and a polyarylene sulfide resin, and wherein the amount of the heat-resistant resin is 15 to 85% by mass relative to the total amount of the non-melt-fabricable polytetrafluoroethylene and the fluorine-containing polymer.
Mounting assembly comprising at least for the one part a housing of cuboid basic shape that has side walls (GW1, GW2, GW3, GW4) that abut in each case at corners (GE1, GE2, GE3, GE4), wherein the side walls (GW1, GW2, GW3, GW4) surround an upwardly open insertion opening of the housing, and comprising for the other part a module carrier of rectangular basic shape for functional units of a modular mounting system, such as a system for door communication and building electrical installation, said module carrier being insertable into the insertion opening of the housing and fastenable in the housing, wherein the module carrier likewise has side walls (TW1, TW2, TW3, TW4) that abut in each case at corners (TE1, TE2, TE3, TE4) and surround a carrier structure for the functional modules as edges, characterized in that the housing and the module carrier each have two longer longitudinal side walls (GW2, TW2, GW4, TW4) and two shorter transverse side walls (GW1, TW1, GW3, TW3) and the housing has protrusions on its top side in the region of two adjacent corners (GE1, GE2) of its side walls (GW1, GW2, GW3, GW4), retaining elements engaging under said protrusions during mounting, said protrusions being arranged in the region of two adjacent corners (TE1, TE2) of the side walls (TW1, TW2, TW3, TW4) of the module carrier and forming a joint together with the retaining elements and together with the side wall, located between the retaining elements, of the module carrier, the module carrier being pivotable about said joint when it is mounted, wherein the top-side protrusions of the housing are located in two adjacent corners (GE1, GE2) of a transverse side wall and a through-bore is located in the opposite transverse side wall of the housing, wherein the module carrier has, in one transverse side wall, a receiving opening for the engagement of a fastening screw that passes through the through-bore located in the side wall of the housing that is located next to the side wall of the module carrier.
A system comprising: at least one processor of a computing device; a memory of the computing device; and bytecode generated from a source code; a debugger comprising at least one program module loaded into the memory causing the at least one processor to: in a debug-mode, insert at least one bailout point into native code generated by a compiler from the bytecode, wherein the at least one bailout point is a location in the native code at which native mode debugging may transition to interpreted mode debugging, providing certain bailout conditions are met; execute the native code; and in response to detecting at a bailout point that at least one debug bailout condition has been met, transition from debugging the native code in the native mode to debugging interpreted bytecode, corresponding to the native code being debugged, in the interpreted mode. at least one processor of a computing device; a memory of the computing device; and bytecode generated from a source code; a debugger comprising at least one program module loaded into the memory causing the at least one processor to: in a debug-mode, insert at least one bailout point into native code generated by a compiler from the bytecode, wherein the at least one bailout point is a location in the native code at which native mode debugging may transition to interpreted mode debugging, providing certain bailout conditions are met; execute the native code; and in response to detecting at a bailout point that at least one debug bailout condition has been met, transition from debugging the native code in the native mode to debugging interpreted bytecode, corresponding to the native code being debugged, in the interpreted mode. in a debug-mode, insert at least one bailout point into native code generated by a compiler from the bytecode, wherein the at least one bailout point is a location in the native code at which native mode debugging may transition to interpreted mode debugging, providing certain bailout conditions are met; execute the native code; and in response to detecting at a bailout point that at least one debug bailout condition has been met, transition from debugging the native code in the native mode to debugging interpreted bytecode, corresponding to the native code being debugged, in the interpreted mode.
Joining element for a column of white goods, in particular for overlapping of at least one washing machine and at least one laundry-drying machine, whereby said joining element comprises at least one supporting structure and at least one withdrawable element slidable inside said supporting structure, characterized in that said withdrawable element is composed of at least one clothes drying rack and of at least one bearing plane overlapped to said clothes drying rack, said bearing plane being slidable with respect to said withdrawable element between a first operating position in which it covers said clothes drying rack below and a second operating position in which it at least partially uncovers said clothes drying rack below, and vice versa.
A method of packaging products comprising: preparing a composite material in a laminating station by bondingly applying a laminating film to a flat material sheet, wherein the laminating film is bonded to the flat material sheet in the laminating station by means of heat and pressure, and wherein the composite material has a receiving surface formed by the laminating film on the side to which the laminating film has been applied; conveying the composite material by a conveying means along a conveying direction out of the laminating station to a filling path and further to a sealing station; positioning a product to be packaged on the receiving surface of the composite material in the filling path; and applying a top film, in particular a skin film, to the receiving surface of the composite material supporting the product in the sealing station so that the product is enclosed between the top film and the composite material. preparing a composite material in a laminating station by bondingly applying a laminating film to a flat material sheet, wherein the laminating film is bonded to the flat material sheet in the laminating station by means of heat and pressure, and wherein the composite material has a receiving surface formed by the laminating film on the side to which the laminating film has been applied; conveying the composite material by a conveying means along a conveying direction out of the laminating station to a filling path and further to a sealing station; positioning a product to be packaged on the receiving surface of the composite material in the filling path; and applying a top film, in particular a skin film, to the receiving surface of the composite material supporting the product in the sealing station so that the product is enclosed between the top film and the composite material.
A stentless support structure for a prosthetic heart valve comprising: at least one strand braided to form a tubular structure having a first configuration and a second configuration; whereby in the first configuration, the tubular structure includes: a first end and a second end; an elongate body between the first end and the second end; characterized in that the at least one strand being braided exhibits shape memory property and the tubular structure in the second configuration is pre-set in a folded shape including at least one fold such that the elongated body is adapted to gradually regain such folded second configuration, being the deployed configuration, when being pushed out from a delivery catheter upon deployment, whereby in the deployed configuration, the tubular structure includes said at least one fold shortening the tubular structure longitudinally and creating a section of the body having at least twice as many layers as the tubular structure in the first configuration. at least one strand braided to form a tubular structure having a first configuration and a second configuration; whereby in the first configuration, the tubular structure includes: a first end and a second end; an elongate body between the first end and the second end; characterized in that the at least one strand being braided exhibits shape memory property and the tubular structure in the second configuration is pre-set in a folded shape including at least one fold such that the elongated body is adapted to gradually regain such folded second configuration, being the deployed configuration, when being pushed out from a delivery catheter upon deployment, a first end and a second end; an elongate body between the first end and the second end; characterized in that the at least one strand being braided exhibits shape memory property and the tubular structure in the second configuration is pre-set in a folded shape including at least one fold such that the elongated body is adapted to gradually regain such folded second configuration, being the deployed configuration, when being pushed out from a delivery catheter upon deployment, whereby in the deployed configuration, the tubular structure includes said at least one fold shortening the tubular structure longitudinally and creating a section of the body having at least twice as many layers as the tubular structure in the first configuration.
A synthetic fiber cable comprising: a core member having multiple resin-impregnated synthetic fibers, the fibers being bundled together; and multiple side members each having multiple resin-impregnated synthetic fibers, the fibers being bundled together in each side member; wherein the resin is in a cured state and each of the multiple side members has been shaped utilizing curability of the resin; each of said shaped multiple side members being in such a state that they are twisted together around said core member, characterized in that each of the multiple side members constituting said synthetic fiber cable has bulged portions (3A-3D) each shaped so as to bulge slightly outward; and said bulged portion (3A-3D) being formed repeatedly on each of said side members along the longitudinal direction thereof. a core member having multiple resin-impregnated synthetic fibers, the fibers being bundled together; and multiple side members each having multiple resin-impregnated synthetic fibers, the fibers being bundled together in each side member; wherein the resin is in a cured state and each of the multiple side members has been shaped utilizing curability of the resin; each of said shaped multiple side members being in such a state that they are twisted together around said core member, characterized in that each of the multiple side members constituting said synthetic fiber cable has bulged portions (3A-3D) each shaped so as to bulge slightly outward; and said bulged portion (3A-3D) being formed repeatedly on each of said side members along the longitudinal direction thereof.