mhurhangee/ep-ind-claims huggingface dataset:
A laminate with internal decorative design for eyeglass frames, comprising: one or more core layers of thermoplastic sheets printed with patterns by heat pressing transfer; a first overlay layer of a transparent thermoplastic sheet; a second overlay layer of a non-transparent thermoplastic sheet; wherein said core layers are sandwiched between said first overlay layer and said second overlay layer, characterized in that the core layer or layers comprise at least one cavity and articles (510, 530), and wherein the size and shape of the cavity is created in a way to enclose the articles. one or more core layers of thermoplastic sheets printed with patterns by heat pressing transfer; a first overlay layer of a transparent thermoplastic sheet; a second overlay layer of a non-transparent thermoplastic sheet; wherein said core layers are sandwiched between said first overlay layer and said second overlay layer, characterized in that the core layer or layers comprise at least one cavity and articles (510, 530), and wherein the size and shape of the cavity is created in a way to enclose the articles.
A multilayer medical packaging film comprising: a first layer, and a chlorine dioxide-producing layer comprising a polymer composition and chlorite ions, wherein the chlorite ions are present in the layer in the form of a salt; wherein the chlorine dioxide-producing layer comprises no energy-activated catalyst and comprises no acid-releasing compound. a first layer, and a chlorine dioxide-producing layer comprising a polymer composition and chlorite ions, wherein the chlorite ions are present in the layer in the form of a salt;
A dense hydrogen separation membrane comprising: a dense hydrogen separation membrane layer; a separation membrane protective layer, characterized in that the protective layer is a cermet form which is prepared by coating a surface of said dense hydrogen separation membrane layer concurrently with an aluminum oxide and a metal layer by using RF power sputter; wherein the cermet is adapted to cause surface migration of hydrogen molecules and hydrogen atoms and has a columnar structure wherein the separation membrane protective layer has a thickness of 50 nm to 3 μm, and the average diameter of metal and cermet columns ranges from 5 nm to 2 μm and voids are formed between cermet columns to expose a part of the surface of the dense hydrogen separation membrane layer. a dense hydrogen separation membrane layer; a separation membrane protective layer, characterized in that the protective layer is a cermet form which is prepared by coating a surface of said dense hydrogen separation membrane layer concurrently with an aluminum oxide and a metal layer by using RF power sputter; wherein the cermet is adapted to cause surface migration of hydrogen molecules and hydrogen atoms and has a columnar structure wherein the separation membrane protective layer has a thickness of 50 nm to 3 μm, and the average diameter of metal and cermet columns ranges from 5 nm to 2 μm and voids are formed between cermet columns to expose a part of the surface of the dense hydrogen separation membrane layer.
A process for preparing a zirconium-based metal organic framework (Zr-MOF), wherein said Zr-MOF comprises pores, comprising the steps: (i) preparing a reaction mixture comprising zirconium ions, sulfate ions and at least one organic linker compound in an aqueous solvent; and (ii) heating the reaction mixture from step (i) for a time period of at least 20 minutes to not more than 10 hours; wherein the at least one organic linker compound is an unsaturated aliphatic compound or an aromatic compound. (i) preparing a reaction mixture comprising zirconium ions, sulfate ions and at least one organic linker compound in an aqueous solvent; and (ii) heating the reaction mixture from step (i) for a time period of at least 20 minutes to not more than 10 hours; wherein the at least one organic linker compound is an unsaturated aliphatic compound or an aromatic compound.
A memory apparatus, comprising: a plurality of memory cells stored with memory data in N dies, each of the N dies comprising M planes, each of the M planes comprising a memory block, N and M each being a positive integer; and a controller operatively coupled to the plurality of memory cells, the controller being configured to: determine J layers in the memory block in each of the M planes and in each of the N dies, each of the J layers comprising a pair of adjacent gate conductive layers, J being a positive integer; determine M sets of stripes, each of the M sets of stripes comprising a plurality of data portions stored in a respective one of the M planes; determine M sets of parity data portions, each of the M sets of parity data portions corresponding to a respective one of the M stripes; and control a temporary storage unit (210, 310, 410), which is outside of the plurality of memory cells, to store the M sets of parity data portions. a plurality of memory cells stored with memory data in N dies, each of the N dies comprising M planes, each of the M planes comprising a memory block, N and M each being a positive integer; and a controller operatively coupled to the plurality of memory cells, the controller being configured to: determine J layers in the memory block in each of the M planes and in each of the N dies, each of the J layers comprising a pair of adjacent gate conductive layers, J being a positive integer; determine M sets of stripes, each of the M sets of stripes comprising a plurality of data portions stored in a respective one of the M planes; determine M sets of parity data portions, each of the M sets of parity data portions corresponding to a respective one of the M stripes; and control a temporary storage unit (210, 310, 410), which is outside of the plurality of memory cells, to store the M sets of parity data portions. determine J layers in the memory block in each of the M planes and in each of the N dies, each of the J layers comprising a pair of adjacent gate conductive layers, J being a positive integer; determine M sets of stripes, each of the M sets of stripes comprising a plurality of data portions stored in a respective one of the M planes; determine M sets of parity data portions, each of the M sets of parity data portions corresponding to a respective one of the M stripes; and control a temporary storage unit (210, 310, 410), which is outside of the plurality of memory cells, to store the M sets of parity data portions.
A blade assembly for use with a grading machine, the blade assembly comprising: a moldboard defining an upper moldboard free end and a lower moldboard free end, the lower moldboard free end defining a lower curved mounting surface; and an adapter board defining an upper adapter board attachment portion, terminating in an upper adapter board free end, and a lower tool bit attachment portion, terminating in a lower adapter board free end, wherein the upper adapter board attachment portion includes a first peak surface and a second peak surface, the first peak surface and the second peak surface forming a first valley therebetween and being configured to contact the lower curved mounting surface and wherein the first peak surface is disposed adjacent the upper adapter board free end and the second peak surface is disposed adjacent the lower moldboard free end; characterised in that the adapter board defines a longitudinal axis, a center of mass, a Cartesian coordinate system with a X-axis, Y-axis, and Z-axis, and an origin disposed at the center of mass and its X-axis is oriented parallel with the longitudinal axis and the first peak surface and the second peak surface extend predominantly parallel with the longitudinal axis, and the upper adapter board attachment portion defines at least one channel forming the first valley separating the first peak surface and the second peak surface, forming a first rib extending parallel with the X-axis, defining the first peak surface and a second rib extending parallel with the X-axis, defining the second peak surface. a moldboard defining an upper moldboard free end and a lower moldboard free end, the lower moldboard free end defining a lower curved mounting surface; and an adapter board defining an upper adapter board attachment portion, terminating in an upper adapter board free end, and a lower tool bit attachment portion, terminating in a lower adapter board free end, wherein the upper adapter board attachment portion includes a first peak surface and a second peak surface, the first peak surface and the second peak surface forming a first valley therebetween and being configured to contact the lower curved mounting surface and wherein the first peak surface is disposed adjacent the upper adapter board free end and the second peak surface is disposed adjacent the lower moldboard free end; characterised in that the adapter board defines a longitudinal axis, a center of mass, a Cartesian coordinate system with a X-axis, Y-axis, and Z-axis, and an origin disposed at the center of mass and its X-axis is oriented parallel with the longitudinal axis and the first peak surface and the second peak surface extend predominantly parallel with the longitudinal axis, and the upper adapter board attachment portion defines at least one channel forming the first valley separating the first peak surface and the second peak surface, forming a first rib extending parallel with the X-axis, defining the first peak surface and a second rib extending parallel with the X-axis, defining the second peak surface.
A system comprising: a plurality of microelectromechanical switches comprising a plurality of gates, coupled to each other, wherein each microelectromechanical switch further comprises: a substrate; a beam electrode disposed on the substrate; a beam comprising an anchor portion coupled to the beam electrode, a first beam portion extending from the anchor portion along a first direction, and a second beam portion extending from the anchor portion along a second direction opposite to the first direction; a first control electrode and a first contact electrode disposed on the substrate, facing the first beam portion; a second control electrode and a second contact electrode disposed on the substrate, facing the second beam portion; wherein the first control electrode and the second control electrode are coupled to form a gate among the plurality of gates; and characterized by two impedance devices (84, 86) coupled to the first contact electrode and the second contact electrode, respectively, wherein the two impedance devices (84, 86) are inductors or resistors or capacitors; wherein the plurality of microelectromechanical switches is arranged in at least one of a series arrangement and a parallel arrangement. a substrate; a beam electrode disposed on the substrate; a beam comprising an anchor portion coupled to the beam electrode, a first beam portion extending from the anchor portion along a first direction, and a second beam portion extending from the anchor portion along a second direction opposite to the first direction; an anchor portion coupled to the beam electrode, a first beam portion extending from the anchor portion along a first direction, and a second beam portion extending from the anchor portion along a second direction opposite to the first direction; a first control electrode and a first contact electrode disposed on the substrate, facing the first beam portion; a second control electrode and a second contact electrode disposed on the substrate, facing the second beam portion; wherein the first control electrode and the second control electrode are coupled to form a gate among the plurality of gates; and characterized by two impedance devices (84, 86) coupled to the first contact electrode and the second contact electrode, respectively, wherein the two impedance devices (84, 86) are inductors or resistors or capacitors; wherein the plurality of microelectromechanical switches is arranged in at least one of a series arrangement and a parallel arrangement.
A nutritional product comprising: a nutritional composition and a food grade polymer capable of increasing an extensional viscosity of the nutritional composition, wherein the nutritional product comprises a Trouton ratio that is from 6 to 15, wherein the food grade polymer is selected from the group consisting of plant-extracted gums, plant-derived mucilages, and combinations thereof; wherein an extensional viscosity of the nutritional product is greater than 100 mPa s; wherein the plant-extracted gums are selected from the group consisting of okra gum, konjac mannan, tara gum, locust bean gum, guar gum, fenugreek gum, tamarind gum, cassia gum, acacia gum, gum ghatti, pectins, cellulosics, tragacanth gum, karaya gum, or any combinations thereof; wherein the plant-derived mucilages are selected from the group consisting of cactus mucilage, psyllium mucilage, mallow mucilage, flax seed mucilage, marshmallow mucilage, ribwort mucilage, mullein mucilage, cetraria mucilage, or combinations thereof. a nutritional composition and a food grade polymer capable of increasing an extensional viscosity of the nutritional composition, wherein the nutritional product comprises a Trouton ratio that is from 6 to 15, wherein the food grade polymer is selected from the group consisting of plant-extracted gums, plant-derived mucilages, and combinations thereof; wherein an extensional viscosity of the nutritional product is greater than 100 mPa s; wherein the plant-extracted gums are selected from the group consisting of okra gum, konjac mannan, tara gum, locust bean gum, guar gum, fenugreek gum, tamarind gum, cassia gum, acacia gum, gum ghatti, pectins, cellulosics, tragacanth gum, karaya gum, or any combinations thereof; wherein the plant-derived mucilages are selected from the group consisting of cactus mucilage, psyllium mucilage, mallow mucilage, flax seed mucilage, marshmallow mucilage, ribwort mucilage, mullein mucilage, cetraria mucilage, or combinations thereof.
Use of a solvent of formula for cleaning textiles or clothes: wherein R 1 and R 2 are each independently hydrogen or C 1-4 alkyl, and R 3 is hydrogen or C 1-4 alkyl.
An addition fragmentation agent of the formula: wherein R A is a (hetero)hydrocarbyl group; R B is each independently a (hetero)hydrocarbyl group; R C is each independently a (hetero)hydrocarbyl group; Subscript a is 0 to 60; Z comprises an ethylenically unsaturated polymerizable group; wherein R A, R B and R C are each independently alkylene of 2 to 10 carbon atoms. R A is a (hetero)hydrocarbyl group; R B is each independently a (hetero)hydrocarbyl group; R C is each independently a (hetero)hydrocarbyl group; Subscript a is 0 to 60; Z comprises an ethylenically unsaturated polymerizable group; wherein R A, R B and R C are each independently alkylene of 2 to 10 carbon atoms.
A needle shroud assembly for a syringe holder, said needle shroud assembly comprising: a barrel; a needle shroud captively telescoped relative to the forward end of the barrel for longitudinal movement between an extended position and a retracted position; shroud bias means urging said shroud towards said extended position, and characterised by a locking collar mounted for limited rotational movement relative to said barrel, the locking collar being rotatable between a safe position in which retraction movement of said needle shroud is prevented or limited, and a live position in which said needle shroud may pass towards its retracted position; the locking collar having an externally accessible actuating portion; and one of said shroud and said locking collar having a keyway and the other thereof having a cooperating key arranged such that relative movement of said key with respect to said keyway is obstructed when said locking collar is in its safe position. a barrel; a needle shroud captively telescoped relative to the forward end of the barrel for longitudinal movement between an extended position and a retracted position; shroud bias means urging said shroud towards said extended position, and characterised by a locking collar mounted for limited rotational movement relative to said barrel, the locking collar being rotatable between a safe position in which retraction movement of said needle shroud is prevented or limited, and a live position in which said needle shroud may pass towards its retracted position; a safe position in which retraction movement of said needle shroud is prevented or limited, and a live position in which said needle shroud may pass towards its retracted position; the locking collar having an externally accessible actuating portion; and one of said shroud and said locking collar having a keyway and the other thereof having a cooperating key arranged such that relative movement of said key with respect to said keyway is obstructed when said locking collar is in its safe position.
A method comprising: detecting, by at least one of multiple issue detectors in a system, one or more performance issues in the computing system; analyzing, by the at least one issue detector, a sequence of events from an event log relating to the detected one or more performance issues to determine a first system behavior; issuing, by the at least one issue detector, a first query relating to the first system behavior; receiving, by one or more analysis core modules in the system, the first query; determining, by the one or more analysis core modules, a second system behavior based on the first query; issuing, by the one or more analysis core modules, a second query relating to the second system behavior; repeating the steps of receiving, determining, and the issuing by another one or more analysis core modules for the second and further queries until the root cause for the detected performance issue is identified; and performing, in the computer system, a responsive action in response to the root cause for the detected performance issue being determined by the multiple analysis modules. detecting, by at least one of multiple issue detectors in a system, one or more performance issues in the computing system; analyzing, by the at least one issue detector, a sequence of events from an event log relating to the detected one or more performance issues to determine a first system behavior; issuing, by the at least one issue detector, a first query relating to the first system behavior; receiving, by one or more analysis core modules in the system, the first query; determining, by the one or more analysis core modules, a second system behavior based on the first query; issuing, by the one or more analysis core modules, a second query relating to the second system behavior; repeating the steps of receiving, determining, and the issuing by another one or more analysis core modules for the second and further queries until the root cause for the detected performance issue is identified; and performing, in the computer system, a responsive action in response to the root cause for the detected performance issue being determined by the multiple analysis modules.
Driver device for generating a load current (I LOAD1, I LOAD2) for at least one load, the driver device comprising an isolation barrier for electrically isolating a primary circuit and a secondary circuit of the driver device, the secondary circuit comprises at least a first load terminal (LED1+) and a second load terminal (LED2+), and the secondary circuit comprising a filter circuit (11,11', 11") connected with one load terminal of the first load terminal (LED1+) and the second load terminal (LED2+), the filter circuit (11,11', 11") is configured to provide a signal (U IND) that is generated based on the load current (I LOAD1, I LOAD2) output via the connected load terminal (LED2+), wherein the filter circuit (11, 11', 11") includes an inductor, and the driver device comprises an evaluation circuit, and the driver device is characterized in that the inductor comprises a main winding (L1, L2, L3) and an auxiliary winding (L1AUX, L2AUX, L3AUX) configured to provide a signal induced by a current through the main winding (L1, L2, L3) of the inductor, and the main winding is configured to go into saturation in case the load current (I LOAD) flows through the main winding of the inductor, and the evaluation circuit is configured to determine that the current (I LOAD1, I LOAD2) is output via the connected load terminal (LED2+) in case of sensing no signal provided by the auxiliary winding (L3 AUX). an isolation barrier for electrically isolating a primary circuit and a secondary circuit of the driver device, the secondary circuit comprises at least a first load terminal (LED1+) and a second load terminal (LED2+), and the secondary circuit comprising a filter circuit (11,11', 11") connected with one load terminal of the first load terminal (LED1+) and the second load terminal (LED2+), the filter circuit (11,11', 11") is configured to provide a signal (U IND) that is generated based on the load current (I LOAD1, I LOAD2) output via the connected load terminal (LED2+), wherein the filter circuit (11, 11', 11") includes an inductor, and the driver device comprises an evaluation circuit, and the driver device is characterized in that the inductor comprises a main winding (L1, L2, L3) and an auxiliary winding (L1AUX, L2AUX, L3AUX) configured to provide a signal induced by a current through the main winding (L1, L2, L3) of the inductor, and the main winding is configured to go into saturation in case the load current (I LOAD) flows through the main winding of the inductor, and the evaluation circuit is configured to determine that the current (I LOAD1, I LOAD2) is output via the connected load terminal (LED2+) in case of sensing no signal provided by the auxiliary winding (L3 AUX).
Rewinding machine for the production of paper logs obtained by winding a paper web, comprising: - feeding means (R1, R5, R6, R7) for feeding a continuous paper web along a predetermined feeding path for feeding the paper web with a predetermined feeding speed; - pre-cutting means (30, 31) adapted to provide a series of pre-cutting discontinuous transverse lines for dividing the web into sheets of predetermined length; - winding means (R2, R3, R4), arranged in a winding station located downstream of said web feeding means, adapted to wind the web for making logs of paper material; - sizing means arranged and acting along said feeding path of the web, upstream of said winding station, with a glue application pad adapted to cyclically apply glue by contact on the web in the proximity of a pre-cutting line thereof, said pad being mounted on a pad-holder device connected with a corresponding actuator; characterized in that - the pad is mounted on the pad-holder device by means of an elastic support which deforms elastically, such that the pad moves elastically towards the pad-holder, when it is subjected to a pressure and moves automatically in the opposite direction returning to its previous position when the pad is no longer subjected to a pressure. - feeding means (R1, R5, R6, R7) for feeding a continuous paper web along a predetermined feeding path for feeding the paper web with a predetermined feeding speed; - pre-cutting means (30, 31) adapted to provide a series of pre-cutting discontinuous transverse lines for dividing the web into sheets of predetermined length; - winding means (R2, R3, R4), arranged in a winding station located downstream of said web feeding means, adapted to wind the web for making logs of paper material; - sizing means arranged and acting along said feeding path of the web, upstream of said winding station, with a glue application pad adapted to cyclically apply glue by contact on the web in the proximity of a pre-cutting line thereof, said pad being mounted on a pad-holder device connected with a corresponding actuator; characterized in that - the pad is mounted on the pad-holder device by means of an elastic support which deforms elastically, such that the pad moves elastically towards the pad-holder, when it is subjected to a pressure and moves automatically in the opposite direction returning to its previous position when the pad is no longer subjected to a pressure.