mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a system which handles plural communication channels, the method comprising the steps of: loading pre-configured instrumentation code into a common program memory stored in a memory device, the instrumentation code and system operation code in the memory device being accessible and executable by plural processor units (CPU 1, CPU 2,... CPU N) of the system, the system operation code being configured to cause each of the plural processor units (CPU 1, CPU 2,... CPU N) to perform one or more operations, each of the processor units being configured to perform the one or more operations with respect to a respective subset of plural communication channels to which the processor unit is connected; during execution of the system operating code by the plural processor units (CPU 1, CPU 2,... CPU N), executing the instrumentation code to generate a surveillance element, the surveillance element comprising multi-dimensional execution criteria and executable surveillance code configured to cause a target processor unit among the plural processor units (CPU 1, CPU 2,... CPU N) to perform a surveillance element-specified surveillance action; executing the surveillance element by the target processor unit. loading pre-configured instrumentation code into a common program memory stored in a memory device, the instrumentation code and system operation code in the memory device being accessible and executable by plural processor units (CPU 1, CPU 2,... CPU N) of the system, the system operation code being configured to cause each of the plural processor units (CPU 1, CPU 2,... CPU N) to perform one or more operations, each of the processor units being configured to perform the one or more operations with respect to a respective subset of plural communication channels to which the processor unit is connected; during execution of the system operating code by the plural processor units (CPU 1, CPU 2,... CPU N), executing the instrumentation code to generate a surveillance element, the surveillance element comprising multi-dimensional execution criteria and executable surveillance code configured to cause a target processor unit among the plural processor units (CPU 1, CPU 2,... CPU N) to perform a surveillance element-specified surveillance action; executing the surveillance element by the target processor unit.
A method of producing a vascularized neural tissue construct, comprising (a) seeding a three-dimensional hydrogel with human neural progenitor cells; (b) culturing the seeded hydrogel for a length of time sufficient for differentiation of at least a portion of the neural progenitor cells; (c) dispersing on or within the cultured seeded hydrogel human endothelial cells and, optionally, one or more of human mesenchymal cells, primitive macrophages, and pericytes; and (d) culturing the seeded hydrogel comprising the dispersed human endothelial cells under culture conditions that promote cell differentiation and for a length of time sufficient for production of a three-dimensional vascularized neural tissue construct comprising interconnected vasculature and layers of human neurons and glial cells. (a) seeding a three-dimensional hydrogel with human neural progenitor cells; (b) culturing the seeded hydrogel for a length of time sufficient for differentiation of at least a portion of the neural progenitor cells; (c) dispersing on or within the cultured seeded hydrogel human endothelial cells and, optionally, one or more of human mesenchymal cells, primitive macrophages, and pericytes; and (d) culturing the seeded hydrogel comprising the dispersed human endothelial cells under culture conditions that promote cell differentiation and for a length of time sufficient for production of a three-dimensional vascularized neural tissue construct comprising interconnected vasculature and layers of human neurons and glial cells.
A conveyor belt for the conveyance of piece goods, in particular food, comprising a support that has end edges (4, 5) at its ends which can be connected by a pintle wire seam, the pintle wire seam having at least two coils (7, 8) extending over the width of the conveyor belt and which are attached to textile strips (11, 12) that are connected to the support so that one coil is attached at one end edge and one coil is attached at the other end edge, the coils (7, 8) being able to be overlapped so that a pintle wire can be placed through the overlapping areas of the coils (7, 8) in order to couple the coils (7, 8), and so the end edges (4, 5), and the support in the form of a textile having a smaller thickness in the area of the textile strips (11, 12) than in the remaining area, and the thickness of the support and of the textile strip (11, 12) attached to it together corresponding to the thickness of the support in the remaining area, the textile strips (11, 12) having elements, in particular textile threads (13, 14, 15, 16), that are made of a melt-on plastic, in particular a thermoplastic, the textile strips (11, 12) being welded to the support by melting on these elements, the elements being absorbent of laser energy, characterised in that the elements are arranged in the areas adjacent to the support, the elements in particular having an additive that makes them absorbent of laser energy and that preferably absorbs laser light with a wavelength in the range of 700 nm to 1200 nm.
A composition for treating a metal substrate comprising: (a) a Group IV(b) metal ion, (b) a copper ion, (c) a fluoride ion, and (d) an organophosphonic acid, and (e) a carrier, wherein (a) is derived from zirconium, titanium or hafnium compound or mixtures thereof, wherein (b) is present in the composition in amounts of 5 to 40 ppm based on elemental copper and on total weight of the composition, wherein (d) is a monophosphonic acid, wherein (e) is an aqueous medium, and wherein the composition has a pH between 3 and 7. (a) a Group IV(b) metal ion, (b) a copper ion, (c) a fluoride ion, and (d) an organophosphonic acid, and (e) a carrier,
Process that can be carried out continuously for the preparation of anhydrous crystalline lactulose from commercial aqueous syrups that contain it, characterised in that the crystallisation and consequent separation of the high-purity lactulose with high yields from the syrup is triggered by mixing the ore pulp (or recycled ore pulp), left after centrifugation of lactulose crystals of a previous lactulose crystallisation phase, with the syrup itself.
A service pit to be installed on a foundation and comprising a plurality of modules, which have a metal support frame, e.g. of steel, and have at least two longitudinal side walls (5, 6) and a bottom, where at least the side walls (5, 6) exhibiting an inner wall and an outer wall are arranged at a distance from each other, said side walls, bottom and foundation bounding a space, comprising a plurality of rib members being arranged transversally in the space to securely attach said inner and outer walls (8, 9) and bottom by means of said rib members, wherein the rib members extend essentially perpendicular to the plane of the side walls (5, 6) and the rib members extend substantially over the whole hollow space and have the form of an U, characterized in that said rib members are in the form of rib plates made of metal plate material having a thickness of 2-6 mm and a transversal width spanning the major portion of the space between the inner and outer walls (8, 9) that is about 80 - 120 mm wherein the upper edges in the bottom part of said rib plates are provided at an obtuse angle (β) relative to vertical.
A computer-implemented method for suppressing power spikes in a battery-powered computing device (102, 1000), the method comprising: determining, for an upcoming point in time, an available amount of power that a battery of the battery-powered computing device (102, 1000) is capable of providing while maintaining a particular voltage level; determining, for the upcoming point in time, a requisite amount of power that components of the battery-powered computing device (102, 1000) will consume to perform at least a portion of a task at their respective power states; altering, responsive to determining that the requisite amount of power exceeds the available amount of power, one or more of the components' respective power states at the upcoming point in time effective to enable the battery to maintain the particular voltage level, wherein said altering the one or more of the components' respective power states comprises reducing a respective power state of at least one of the components and negatively effects performance of the task, and after determining that the requisite amount of power exceeds the available amount of power, increasing, at another point in time, the one or more of the components' respective power states to mitigate the negative effects on performance of the task, wherein the other point in time occurs before the upcoming point in time at which the requisite amount of power exceeds the available amount of power. determining, for an upcoming point in time, an available amount of power that a battery of the battery-powered computing device (102, 1000) is capable of providing while maintaining a particular voltage level; determining, for the upcoming point in time, a requisite amount of power that components of the battery-powered computing device (102, 1000) will consume to perform at least a portion of a task at their respective power states; altering, responsive to determining that the requisite amount of power exceeds the available amount of power, one or more of the components' respective power states at the upcoming point in time effective to enable the battery to maintain the particular voltage level, wherein said altering the one or more of the components' respective power states comprises reducing a respective power state of at least one of the components and negatively effects performance of the task, and after determining that the requisite amount of power exceeds the available amount of power, increasing, at another point in time, the one or more of the components' respective power states to mitigate the negative effects on performance of the task, wherein the other point in time occurs before the upcoming point in time at which the requisite amount of power exceeds the available amount of power.
A single level spinal fusion device (1000, 1060, 1100), comprising: a first fastener (1010, 1070, 1110) with a head portion (1020, 1080, 1116) including a first opening (1022, 1082, 1126) and a second opening (1026, 1084, 1122), wherein the second opening (1026, 1084, 1122) extends entirely through the head portion (1020, 1080, 1116), and wherein the first opening (1022, 1082, 1126) extends through the head portion (1020, 1080, 1116) and into the second opening (1026, 1084, 1122); and a second fastener with a protrusion for engaging the head portion (1020, 1080, 1116), wherein the protrusion is positioned within the second opening (1026, 1084, 1122). a first fastener (1010, 1070, 1110) with a head portion (1020, 1080, 1116) including a first opening (1022, 1082, 1126) and a second opening (1026, 1084, 1122), wherein the second opening (1026, 1084, 1122) extends entirely through the head portion (1020, 1080, 1116), and wherein the first opening (1022, 1082, 1126) extends through the head portion (1020, 1080, 1116) and into the second opening (1026, 1084, 1122); and a second fastener with a protrusion for engaging the head portion (1020, 1080, 1116), wherein the protrusion is positioned within the second opening (1026, 1084, 1122).
A surgical clip applier, comprising: a shaft having first and second jaws (212, 214) at a distal end thereof, each jaw having a proximal portion and a distal portion that extends transverse to the proximal portion, the distal portion of the first and second jaws (212, 214) having opposed inward facing surfaces defining a clip track for receiving a distal-most clip from a plurality of clips disposed within the shaft, and the proximal portion of the first and second jaws (212, 214) having outer contact surfaces, an intersection between the proximal and distal portion defining a maximum width of the first and second jaws (212, 214); a former member disposed proximal of the first and second jaws (212, 214) and movable distally to engage the outer contact surfaces to cause the first and second jaws to pivot from an open configuration to a closed configuration for deforming a clip seated in the clip track, wherein an initial point of contact occurs at a distal-most tip of the first and second jaws (212, 214) as the jaws move to the closed configuration, and a shroud assembly including first and second shrouds (452, 454) disposed around the first and second jaws (212, 214), the shroud assembly forming a gap that limits movement of the first and second jaws (212, 214) along a single plane, the first and second shrouds (452, 454) forming at least one mechanical interlock configured to fix a height of the gap. a shaft having first and second jaws (212, 214) at a distal end thereof, each jaw having a proximal portion and a distal portion that extends transverse to the proximal portion, the distal portion of the first and second jaws (212, 214) having opposed inward facing surfaces defining a clip track for receiving a distal-most clip from a plurality of clips disposed within the shaft, and the proximal portion of the first and second jaws (212, 214) having outer contact surfaces, an intersection between the proximal and distal portion defining a maximum width of the first and second jaws (212, 214); a former member disposed proximal of the first and second jaws (212, 214) and movable distally to engage the outer contact surfaces to cause the first and second jaws to pivot from an open configuration to a closed configuration for deforming a clip seated in the clip track, wherein an initial point of contact occurs at a distal-most tip of the first and second jaws (212, 214) as the jaws move to the closed configuration, and a shroud assembly including first and second shrouds (452, 454) disposed around the first and second jaws (212, 214), the shroud assembly forming a gap that limits movement of the first and second jaws (212, 214) along a single plane, the first and second shrouds (452, 454) forming at least one mechanical interlock configured to fix a height of the gap.
A method of providing a medical balloon or a parison for forming a medical balloon with a radiopaque portion, comprising: inserting a mandrel and a radiopaque material into the medical balloon or the parison, wherein the mandrel is adapted to deposit the radiopaque material on an interior surface of the medical balloon or parison during an expanding step; and expanding the mandrel. inserting a mandrel and a radiopaque material into the medical balloon or the parison, wherein the mandrel is adapted to deposit the radiopaque material on an interior surface of the medical balloon or parison during an expanding step; and expanding the mandrel.
A positive resist composition comprising: a component: an alkali-soluble polymer; a component: a compound having an organic group to be photolyzed to generate an alkali-soluble group; a component: a crosslinkable compound of Formula: [where R 1, R 2, and, R 3 are independently a C 1-6 alkylene group or oxyalkylene group which are optionally branched; and E 1, E 2, and E 3 are independently a group containing a structure of Formula or Formula: (where R 4 is a hydrogen atom or a methyl group)]; and a component: a solvent. a component: an alkali-soluble polymer; a component: a compound having an organic group to be photolyzed to generate an alkali-soluble group; a component: a crosslinkable compound of Formula: [where R 1, R 2, and, R 3 are independently a C 1-6 alkylene group or oxyalkylene group which are optionally branched; and E 1, E 2, and E 3 are independently a group containing a structure of Formula or Formula: (where R 4 is a hydrogen atom or a methyl group)]; and a component: a solvent.
A method of manufacturing a solar cell, the method comprising: forming, on a substrate, an inorganic seed layer conforming to the substrate using a Cs-doped PbO target, or a Cs 2 O target and a PbO target, wherein the inorganic seed layer is formed by sputtering; and supplying organic halides onto the inorganic seed layer, wherein the inorganic seed layer has a Cs x PbO composite composition, wherein O denotes oxygen. forming, on a substrate, an inorganic seed layer conforming to the substrate using a Cs-doped PbO target, or a Cs 2 O target and a PbO target, wherein the inorganic seed layer is formed by sputtering; and supplying organic halides onto the inorganic seed layer, wherein the inorganic seed layer has a Cs x PbO composite composition, wherein O denotes oxygen.
Structure of a concentrator mirror comprising a prefabricated body of reinforced concrete including an elongated panel member having a front surface adapted to receive a reflective laminar layer, and a back surface opposite to said front surface, the panel member being rotatable about a longitudinal hinge axis, said body being provided with a counterweight appendage that extends from the back surface of the panel member in the direction opposite to its front surface, characterized in that - said panel member of the body has a pair of coaxial hollow seats which open in its back surface, which are longitudinally spaced along said hinge axis and are formed so as to receive respective support ball joints (42, 44) defining said hinge axis, and in that - said counterweight appendage is formed integrally with the panel member and projects from the panel member between said coaxial hollow seats along a direction parallel to said hinge axis, said appendage being shaped generally as a continuous linear rib with the aim of bringing the hinge axis of the panel member into a barycentric position of the body. - said panel member of the body has a pair of coaxial hollow seats which open in its back surface, which are longitudinally spaced along said hinge axis and are formed so as to receive respective support ball joints (42, 44) defining said hinge axis, and in that - said counterweight appendage is formed integrally with the panel member and projects from the panel member between said coaxial hollow seats along a direction parallel to said hinge axis, said appendage being shaped generally as a continuous linear rib with the aim of bringing the hinge axis of the panel member into a barycentric position of the body.
A memory, the memory being a DRAM, comprising at least one memory chip, each of the at least one memory chip comprising at least one channel, wherein each of the at least one channel comprises a plurality of banks, each of the plurality of banks comprising a plurality of memory cells, wherein the plurality of banks are configured to perform read and write operations alternately; a command port for each of the at least one memory chip, configured to receive command signals at a preset edge of a command clock, wherein the command signals are configured to control the read and write operations of the plurality of banks; and a data port for each of the at least one memory chip, configured to receive data signals to be written into the plurality of banks or transmit data signals at a preset edge of a data clock; characterised in that the command port comprises a row address port and a column address port, the row address port is configured to receive a row address signal at a position of a target memory cell, the column address port is configured to receive a column address signal at a position of the target memory cell, the row address signal is comprised in an activation command, the column address signal is comprised in a read command, the row address port receives the activation command while the column address port receives the read command, after the row address port alternately receives activation commands for different banks, the column address port alternately receives read commands corresponding to the activation commands; and the target memory cell is selected from the plurality of memory cells. at least one memory chip, each of the at least one memory chip comprising at least one channel, wherein each of the at least one channel comprises a plurality of banks, each of the plurality of banks comprising a plurality of memory cells, wherein the plurality of banks are configured to perform read and write operations alternately; a command port for each of the at least one memory chip, configured to receive command signals at a preset edge of a command clock, wherein the command signals are configured to control the read and write operations of the plurality of banks; and a data port for each of the at least one memory chip, configured to receive data signals to be written into the plurality of banks or transmit data signals at a preset edge of a data clock;
Tool for machining bores, having a basic body, having at least three cutting elements that are arranged in a manner distributed around the circumference of the basic body, and having an adjusting device for adjusting the cutting elements in a radial direction (y), wherein the adjusting device has respective holding elements for holding the respective cutting element, respective wedge elements that are operatively connected to the holding elements and have respective inclined surfaces, and an adjusting ring that acts at least indirectly on the wedge elements in order to move them in translation in an axial direction (x), wherein the holding elements have respective inclined surfaces that cooperate with the inclined surfaces of the wedge elements such that an axial movement in translation of the wedge elements results in a radial movement of the respective holding element, characterized in that the adjusting ring has an internal thread which is operatively connected to an external thread of a connecting ring connected to the wedge elements, and in that the internal thread and the external thread are embodied as a left-hand thread. the adjusting device has respective holding elements for holding the respective cutting element, respective wedge elements that are operatively connected to the holding elements and have respective inclined surfaces, and an adjusting ring that acts at least indirectly on the wedge elements in order to move them in translation in an axial direction (x), wherein the holding elements have respective inclined surfaces that cooperate with the inclined surfaces of the wedge elements such that an axial movement in translation of the wedge elements results in a radial movement of the respective holding element, characterized in that the adjusting ring has an internal thread which is operatively connected to an external thread of a connecting ring connected to the wedge elements, and in that the internal thread and the external thread are embodied as a left-hand thread.