mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a monocrystalline silicon substrate surface for a subsequent texturing step, the method comprising: a. removing contaminants from the surface by contacting the surface with a cleaning solution, thereby converting the surface to a pre-cleaned surface; characterized in that the method further comprises: b. etching the pre-cleaned surface with an aqueous solution comprising from 12 to 19% by weight of KOH and/or NaOH, thereby converting the pre-cleaned surface into an etched surface; c. rinsing the etched surface with an aqueous medium at pH from 7 to 10 thereby converting the etched surface into a rinsed etched surface; and d. contacting the rinsed etched surface with ozonated deionized water at pH from 2 to 4.5, thereby converting the rinsed etched surface into a prepared surface. a. removing contaminants from the surface by contacting the surface with a cleaning solution, thereby converting the surface to a pre-cleaned surface; b. etching the pre-cleaned surface with an aqueous solution comprising from 12 to 19% by weight of KOH and/or NaOH, thereby converting the pre-cleaned surface into an etched surface; c. rinsing the etched surface with an aqueous medium at pH from 7 to 10 thereby converting the etched surface into a rinsed etched surface; and d. contacting the rinsed etched surface with ozonated deionized water at pH from 2 to 4.5, thereby converting the rinsed etched surface into a prepared surface.
A saddled vehicle with a cover fastening structure, comprising: a headlight that lights a front side of the vehicle; side covers serving as exterior parts that cover lateral sides of the vehicle; a first cover disposed below the headlight such as to be continuous with the side covers; and a second cover disposed rearwardly of the first cover such as to cover a lower side of the headlight, wherein the first cover is provided with a fitting section that is fitted to the second cover, the fitting section is provided with a cutout, the second cover is provided with a solid fitting-receiving section, and the cutout of the first cover and the fitting-receiving section of the second cover are fastened together by being fitted to each other, characterized in that the fitting-receiving section is cylindrical, a direction in which the cutout and the fitting-receiving section are fitted to each other is a vehicle traveling direction, and an axis of the fitting-receiving section extends in a transverse direction. a headlight that lights a front side of the vehicle; side covers serving as exterior parts that cover lateral sides of the vehicle; a first cover disposed below the headlight such as to be continuous with the side covers; and a second cover disposed rearwardly of the first cover such as to cover a lower side of the headlight, wherein the first cover is provided with a fitting section that is fitted to the second cover, the fitting section is provided with a cutout, the second cover is provided with a solid fitting-receiving section, and the cutout of the first cover and the fitting-receiving section of the second cover are fastened together by being fitted to each other,
A gel-based dessert product having an apparent viscosity of at least about 10,000 mPa*s at 20° C and 10 s -1, comprising: - a structured fat component comprising citrus pulp fiber and an edible oil, the structured fat component having a solid fat content of no greater than 5 wt% at 0° C; - water; and - an edible starch; wherein the gel-based dessert product has an FDA saturates content of no more than 20% of a total fat content of the gel-based dessert. - a structured fat component comprising citrus pulp fiber and an edible oil, the structured fat component having a solid fat content of no greater than 5 wt% at 0° C; - water; and - an edible starch;
An integrated device comprising: a first netlist structure (202; 602; 902; 1602) for a power distribution network, PDN, of the integrated device, the first netlist structure defined as a first set of interconnects, a first set of active elements and/or a first set of passive elements that form a first circuit of the integrated device, the first netlist structure being provided in a first contiguous set of regions of a first metal layer (704; 810; 1400; 1600); a second netlist structure (204; 604; 904; 1604; 1702) of the PDN of the integrated device, the second netlist structure defined as a second set of interconnects, a second set of active elements and/or a second set of passive elements that form a second circuit of the integrated device, the second netlist structure being provided in a second contiguous set of regions of a second metal layer (706; 814; 1300; 1500; 1700); and a third netlist structure (206; 906; 1606; 2000) of the PDN of the integrated device, the third netlist structure defined as a third set of interconnects, a third set of active elements and/or a third set of passive elements that form a third circuit of the integrated device, the third netlist structure being provided in a third set of regions of the first metal layer and a fourth set of regions of the second metal layer, the third set of regions being non-overlapping with the first set of regions of the first metal layer and the fourth set of regions being non-overlapping with the second set of regions of the second metal layer, the third and fourth sets of regions being coupled by a set of vias. a first netlist structure (202; 602; 902; 1602) for a power distribution network, PDN, of the integrated device, the first netlist structure defined as a first set of interconnects, a first set of active elements and/or a first set of passive elements that form a first circuit of the integrated device, the first netlist structure being provided in a first contiguous set of regions of a first metal layer (704; 810; 1400; 1600); a second netlist structure (204; 604; 904; 1604; 1702) of the PDN of the integrated device, the second netlist structure defined as a second set of interconnects, a second set of active elements and/or a second set of passive elements that form a second circuit of the integrated device, the second netlist structure being provided in a second contiguous set of regions of a second metal layer (706; 814; 1300; 1500; 1700); and a third netlist structure (206; 906; 1606; 2000) of the PDN of the integrated device, the third netlist structure defined as a third set of interconnects, a third set of active elements and/or a third set of passive elements that form a third circuit of the integrated device, the third netlist structure being provided in a third set of regions of the first metal layer and a fourth set of regions of the second metal layer, the third set of regions being non-overlapping with the first set of regions of the first metal layer and the fourth set of regions being non-overlapping with the second set of regions of the second metal layer, the third and fourth sets of regions being coupled by a set of vias.
A Slice Management entity (700, 222) for a Radio Access Network, RAN,, the Slice Management entity (700, 222) comprising a processor, configured: to receive from a cross domain slice orchestration RAN Slice information (703, 401), including at least one of a RAN slice Key Performance Indicator, KPI,, a Slice Identifier, ID, Network Slice Selection Assistance Information, NSSAI,; to determine a configuration, including a pre-configuration, for at least one Slice of the RAN based on the RAN Slice information (703, 401); to transmit a RAN Slice configuration message (224, 403) to the RAN based on the configuration; to receive a Context Change message from the RAN indicating a change of context with respect to a change of information on at least one of a process, a protocol function, a resource of the RAN, a traffic at the RAN; to adjust the configuration for the RAN based on the change of context and to send a RAN slice configuration update message to the RAN. to receive from a cross domain slice orchestration RAN Slice information (703, 401), including at least one of a RAN slice Key Performance Indicator, KPI,, a Slice Identifier, ID, Network Slice Selection Assistance Information, NSSAI,; to determine a configuration, including a pre-configuration, for at least one Slice of the RAN based on the RAN Slice information (703, 401); to transmit a RAN Slice configuration message (224, 403) to the RAN based on the configuration; to receive a Context Change message from the RAN indicating a change of context with respect to a change of information on at least one of a process, a protocol function, a resource of the RAN, a traffic at the RAN; to adjust the configuration for the RAN based on the change of context and to send a RAN slice configuration update message to the RAN.
A copper electroplating bath comprising: a plating solution comprising a source of copper ions in the form of a copper salt which is present in the plating solution in an amount sufficient to provide an amount of copper metal of 10 to 180 g/L of plating solution, an electrolyte, and from 0.25 to 5000 ppm, based on the total weight of the electroplating bath, of a leveling agent, wherein the leveling agent is a reaction product of one or more cyclodiaza-compounds with one or more epoxide-containing compounds; wherein at least one cyclodiaza-compound has the formula (IIa) or (IIb) wherein R 1 and R 2 are independently chosen from H, (C 1 -C 6)alkyl and (C 6 -C 10)aryl; R 4 and R 7 to R 10 are independently chosen from H, (C 1 -C 6)alkyl, (C 6 -C 10)aryl and hydroxyl; R 7 and R 9 may be taken together to form a chemical bond; and any of R 1, R 4 and R 7 to R 10 on adjacent ring atoms may be taken together along with the atoms to which they are attached to form a 5- or 6-membered saturated or unsaturated ring; wherein the epoxide-containing compound is where Y 1 and Y 2 are independently chosen from H and (C 1 -C 4)alkyl; A = OR 11 or R 12; R 11 = ((CR 13 R 14) m O) n, (aryl-O) p, CR 13 R 14 -Z-CR 13 R 14 O or OZ 1 t O; R 12 = (CH 2) y; Z = a 5- or 6-membered ring; Z 1 is R 15 OArOR 15, (R 16 O) a Ar(OR 16) a, or (R 16 O) a Cy(OR 16) a; Cy = (C 5 -C 12)cycloalkyl; each R 13 and R 14 are independently chosen from H, CH 3 and OH; each R 15 represents (C 1 -C 8)alkyl; each R 16 represents a (C 2 -C 6)alkyleneoxy; each a = 1-10; m = 1-6; n = 1-20; p = 1-6; t = 1-4; and y = 0-6; wherein Y 1 and Y 2 may be taken together to form a (C 8 -C 12)cyclic compound. wherein R 1 and R 2 are independently chosen from H, (C 1 -C 6)alkyl and (C 6 -C 10)aryl; R 4 and R 7 to R 10 are independently chosen from H, (C 1 -C 6)alkyl, (C 6 -C 10)aryl and hydroxyl; R 7 and R 9 may be taken together to form a chemical bond; and any of R 1, R 4 and R 7 to R 10 on adjacent ring atoms may be taken together along with the atoms to which they are attached to form a 5- or 6-membered saturated or unsaturated ring; wherein the epoxide-containing compound is
A method, at a computation node of a database system, for managing storage of a primary database and a replica database, characterized by: storing data arranged in a sequence of rows in a first storage format at the primary database; storing the data arranged in the sequence of rows in a second storage format at the replica database, wherein the sequence of rows is determined according to one of the first storage format and the second storage format; and wherein storing the data in the primary database includes storing each group of rows in a plurality of groups of rows in the data into a corresponding heap file of a fixed length, and wherein storing the data in the replica database includes storing a fixed number of columns in each group of rows into a corresponding compression unit of a fixed number of entries; wherein each heap file includes a sequence number indicating a first row in the corresponding group of rows, and each heap file storing a group of rows includes or is associated with a CU descriptor pointing to the corresponding CU storing the group of rows. storing data arranged in a sequence of rows in a first storage format at the primary database; storing the data arranged in the sequence of rows in a second storage format at the replica database, wherein the sequence of rows is determined according to one of the first storage format and the second storage format; and wherein storing the data in the primary database includes storing each group of rows in a plurality of groups of rows in the data into a corresponding heap file of a fixed length, and wherein storing the data in the replica database includes storing a fixed number of columns in each group of rows into a corresponding compression unit of a fixed number of entries; wherein each heap file includes a sequence number indicating a first row in the corresponding group of rows, and each heap file storing a group of rows includes or is associated with a CU descriptor pointing to the corresponding CU storing the group of rows.
A system for stimulating facial nerves in a subject with synkinetic reinnervated muscles comprising: an electrode having a plurality of contacts for placement in a parotid region of the subject's face; a processor in communication with the electrode, the processor having program code for stimulating each of the plurality of contacts separately, for identifying one or more contacts from the plurality of contacts that cause one or more nerve branches to activate a desired facial muscle by testing via stimulating each contact of the electrode separately, so that one or more contacts are identified which stimulate nerve branches activating a particular facial muscle, and for selecting the identified contacts to stimulate the one or more nerve branches, wherein, if co-activation of other nerve branches happens at an unacceptable level, the selecting further comprises selecting one or more contacts to block the other nerve branches by blocking stimulation.
A medical device, comprising: an elongate body having a proximal portion and a distal portion; a linear shaft coaxial with and extending from the distal portion of the elongate body, the linear shaft having a proximal portion and a distal portion the linear shaft being movable with respect to the elongate body; a fluid injection tube coupled to the distal portion of the elongate body and a pliable element coupled to a portion of the linear shaft and encompassing the fluid injection tube, characherised in that the fluid injection tube is also coupled to the distal portion of the linear shaft; the fluid injection tube being deployable by movement of the linear shaft within the pliable element about the linear shaft between a substantially linear configuration to an expanded radial configuration, and deploying the fluid injection tube into the expanded radial configuration deforms the pliable element to an expanded configuration. an elongate body having a proximal portion and a distal portion; a linear shaft coaxial with and extending from the distal portion of the elongate body, the linear shaft having a proximal portion and a distal portion the linear shaft being movable with respect to the elongate body; a fluid injection tube coupled to the distal portion of the elongate body and a pliable element coupled to a portion of the linear shaft and encompassing the fluid injection tube, characherised in that the fluid injection tube is also coupled to the distal portion of the linear shaft; the fluid injection tube being deployable by movement of the linear shaft within the pliable element about the linear shaft between a substantially linear configuration to an expanded radial configuration, and deploying the fluid injection tube into the expanded radial configuration deforms the pliable element to an expanded configuration.
Fly cutting apparatus for cutting panels obtained by continuous foaming, comprising - a flat advancement and support structure suitable for supporting a panel and having a longitudinal axis along which said panel intended to be cut advances, - a portal structure with a movable crossbar movable along said longitudinal axis, to follow said panel and supporting - a cutting unit suitable for cutting said panel that is movable along a transverse axis, which is transverse and perpendicular to said longitudinal axis, said cutting unit comprising a motorized cutting element that is movable along an engagement/exclusion axis to penetrate or disengage from the section or thickness (h) of said panel, - a tightening pressing unit suitable for exerting on said panel a grasping and stabilizing pressure along a tightening axis during cutting, said apparatus further comprising a control unit configured to control in an independent and combined manner the kinematic parameters of said cutting unit, in which said control unit is configured to control the kinematic parameters of said cutting unit along said transverse axis and to control, in a synchronised manner, the kinematic parameters of said movable crossbar along said longitudinal axis, linear motor means being provided to drive said cutting unit and said movable crossbar. - a flat advancement and support structure suitable for supporting a panel and having a longitudinal axis along which said panel intended to be cut advances, - a portal structure with a movable crossbar movable along said longitudinal axis, to follow said panel and supporting - a cutting unit suitable for cutting said panel that is movable along a transverse axis, which is transverse and perpendicular to said longitudinal axis, said cutting unit comprising a motorized cutting element that is movable along an engagement/exclusion axis to penetrate or disengage from the section or thickness (h) of said panel, - a tightening pressing unit suitable for exerting on said panel a grasping and stabilizing pressure along a tightening axis during cutting, - a cutting unit suitable for cutting said panel that is movable along a transverse axis, which is transverse and perpendicular to said longitudinal axis, said cutting unit comprising a motorized cutting element that is movable along an engagement/exclusion axis to penetrate or disengage from the section or thickness (h) of said panel, - a tightening pressing unit suitable for exerting on said panel a grasping and stabilizing pressure along a tightening axis during cutting,
A method to manufacture an electronic component, comprising the following steps: - providing a planar component, - providing a cap, - arranging a porous and fluid-permeable, particularly gas-permeable, sealing element on the cap or on the component, comprising - the manufacture of the porous and fluid-permeable sealing element by arranging an alloy containing a first alloy component and a second alloy component on the cap or on the component, and - a subsequent etching of the second alloy component, such that the first alloy component remains and thereby forms the porous and fluid-permeable sealing element; - arranging the component and the cap in relation to one another such that the sealing element is arranged between the cap and the component and is in contact with both the cap and the component, and that an intermediate space between the cap and the component is bounded at least sectionally by the porous and fluid-permeable sealing element, - first bonding of the component and the cap by applying a first bonding pressure and/or a first bonding temperature in such a way to create a mechanically durable connection between the component and the cap, - exposing the cap and the component to a fluid, particularly a gas atmosphere, or to a vacuum, after the first bonding, with fluid or gas flowing through pores in the sealing element into the intermediate space or escaping from it, - second bonding of the component and the cap by applying a second bonding pressure and/or a second bonding temperature, thereby closing the pores of the sealing element and sealing the intermediate space. - providing a planar component, - providing a cap, - arranging a porous and fluid-permeable, particularly gas-permeable, sealing element on the cap or on the component, comprising - the manufacture of the porous and fluid-permeable sealing element by arranging an alloy containing a first alloy component and a second alloy component on the cap or on the component, and - a subsequent etching of the second alloy component, such that the first alloy component remains and thereby forms the porous and fluid-permeable sealing element; - arranging the component and the cap in relation to one another such that the sealing element is arranged between the cap and the component and is in contact with both the cap and the component, and that an intermediate space between the cap and the component is bounded at least sectionally by the porous and fluid-permeable sealing element, - first bonding of the component and the cap by applying a first bonding pressure and/or a first bonding temperature in such a way to create a mechanically durable connection between the component and the cap, - exposing the cap and the component to a fluid, particularly a gas atmosphere, or to a vacuum, after the first bonding, with fluid or gas flowing through pores in the sealing element into the intermediate space or escaping from it, - second bonding of the component and the cap by applying a second bonding pressure and/or a second bonding temperature, thereby closing the pores of the sealing element and sealing the intermediate space.
A prosthesis comprising: a self-expanding stent having a distal end, a middle portion, and a proximal end, the distal and proximal ends comprising one or more barbs (14, 830); and a graft body; wherein the distal end of the self-expanding stent comprises a radially compressed configuration; wherein the proximal end of the self-expanding stent comprises a radially compressed configuration; characterised in that: the distal end of the self-expanding stent comprises a distal end sleeve comprising a section having a thinner wall thickness and a section having a thicker wall thickness, wherein the section having the thicker wall thickness is located proximally adjacent the section having the thinner wall thickness; the proximal end of the self-expanding stent comprises a radially compressed configuration and a proximal end sleeve comprising a section having a thinner wall thickness and a section having a thicker wall thickness, wherein the section having the thinner wall thickness is located proximally adjacent the section having the thicker wall thickness; and wherein the distal end sleeve and the proximal end sleeve are dissolvable. a self-expanding stent having a distal end, a middle portion, and a proximal end, the distal and proximal ends comprising one or more barbs (14, 830); and a graft body; wherein the distal end of the self-expanding stent comprises a radially compressed configuration; wherein the proximal end of the self-expanding stent comprises a radially compressed configuration; the distal end of the self-expanding stent comprises a distal end sleeve comprising a section having a thinner wall thickness and a section having a thicker wall thickness, wherein the section having the thicker wall thickness is located proximally adjacent the section having the thinner wall thickness; the proximal end of the self-expanding stent comprises a radially compressed configuration and a proximal end sleeve comprising a section having a thinner wall thickness and a section having a thicker wall thickness, wherein the section having the thinner wall thickness is located proximally adjacent the section having the thicker wall thickness; and wherein the distal end sleeve and the proximal end sleeve are dissolvable.