mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer packaging film comprising: a coextruded film comprising alternating layers of glass and plastic, wherein the number of glass layers is at least two and the number of plastic layers is at least one, wherein the multilayer packaging film has a total thickness within a range from 10 μm to 250 μm, wherein the multilayer packaging film has a minimum bend radius of less than 10 mm, and wherein the glass comprises on an elemental basis tin in a mole percentage within a range from 12.0 to 17.1, fluorine in a mole percentage within a range from 11.2 to 24.3, phosphorus in a mole percentage within a range from 12.1 to 19.6, and oxygen in a mole percentage within a range from 43.3 to 61.1. a coextruded film comprising alternating layers of glass and plastic, wherein the number of glass layers is at least two and the number of plastic layers is at least one, wherein the multilayer packaging film has a total thickness within a range from 10 μm to 250 μm, wherein the multilayer packaging film has a minimum bend radius of less than 10 mm, and wherein the glass comprises on an elemental basis tin in a mole percentage within a range from 12.0 to 17.1, fluorine in a mole percentage within a range from 11.2 to 24.3, phosphorus in a mole percentage within a range from 12.1 to 19.6, and oxygen in a mole percentage within a range from 43.3 to 61.1.
A pharmaceutical composition in the form of a capsule, comprising a powder mixture that comprises a) silodosin, b) a surfactant, c) a lubricant, and d) low-substituted hydroxypropyl cellulose (L-HPC) as a disintegrant in an amount of 16 wt% or more based on the total weight of all components of the mixture, and optionally e) a diluent, wherein said composition is prepared by dry mixing or blending the silodosin, disintegrant, surfactant, lubricant, and optional diluent, in a single powder mixture or blend, followed by direct filling into a capsule.
A method comprising: causing, by one or more processors , display of a single frame of multiple frames of point cloud data , and of one or more video control buttons for causing a video display of the multiple frames of point cloud data in sequence, wherein the video control buttons include buttons to control play, stop, pause, rewind and fast forward functions; labeling , by the one or more processors, points in the frame of the point cloud data with a plurality of annotation points (402-406), the plurality of annotation points corresponding to points on a human body and defining a skeleton overlaid on the point cloud data; moving , by the one or more processors, and in response to a user input, one or more of the annotation points to define a human pose and create annotated point cloud data , wherein the human pose is the position and orientation of the limbs of a human; and outputting , by the one or more processors, the annotated point cloud data as data for training a neural network . causing, by one or more processors , display of a single frame of multiple frames of point cloud data , and of one or more video control buttons for causing a video display of the multiple frames of point cloud data in sequence, wherein the video control buttons include buttons to control play, stop, pause, rewind and fast forward functions; labeling , by the one or more processors, points in the frame of the point cloud data with a plurality of annotation points (402-406), the plurality of annotation points corresponding to points on a human body and defining a skeleton overlaid on the point cloud data; moving , by the one or more processors, and in response to a user input, one or more of the annotation points to define a human pose and create annotated point cloud data , wherein the human pose is the position and orientation of the limbs of a human; and outputting , by the one or more processors, the annotated point cloud data as data for training a neural network .
Process for producing at least a first and a second micromirror device , wherein the process comprises the following process steps: - providing a silicon wafer , in particular plate-shaped, having a front and a rear , and - applying a silicon oxide layer to at least the front of the silicon wafer , in particular with a layer thickness of the silicon oxide layer in a range from 1 μm to 3 μm, and - removing the silicon oxide layer , in particular up to an outer surface of the silicon wafer , such that at least one first separation region and at least a second separation region of the silicon oxide layer are produced, wherein the first and the second separation region of the silicon oxide layer are arranged separately from each other spatially, along a separation plane , and - applying a silicon layer , in particular a polysilicon layer having a layer thickness in a range from 5 μm to 50 μm, to the front of the silicon wafer and to the silicon oxide layer , in particular to the first and second separation regions of the silicon oxide layer , and - applying an etching mask to the rear of the silicon wafer , wherein the etching mask has a first opening along the separation plane of the first and second separation regions of the silicon oxide layer , and - removing the silicon layer and the silicon wafer by means of an etching process in one process step depending on the etching mask on the rear of the silicon wafer and depending on the silicon oxide layer of the silicon wafer , in particular the first and second separation regions of the silicon oxide layer , so that at least a first and a second micromirror device are produced. - providing a silicon wafer , in particular plate-shaped, having a front and a rear , and - applying a silicon oxide layer to at least the front of the silicon wafer , in particular with a layer thickness of the silicon oxide layer in a range from 1 μm to 3 μm, and - removing the silicon oxide layer , in particular up to an outer surface of the silicon wafer , such that at least one first separation region and at least a second separation region of the silicon oxide layer are produced, wherein the first and the second separation region of the silicon oxide layer are arranged separately from each other spatially, along a separation plane , and - applying a silicon layer , in particular a polysilicon layer having a layer thickness in a range from 5 μm to 50 μm, to the front of the silicon wafer and to the silicon oxide layer , in particular to the first and second separation regions of the silicon oxide layer , and - applying an etching mask to the rear of the silicon wafer , wherein the etching mask has a first opening along the separation plane of the first and second separation regions of the silicon oxide layer , and - removing the silicon layer and the silicon wafer by means of an etching process in one process step depending on the etching mask on the rear of the silicon wafer and depending on the silicon oxide layer of the silicon wafer , in particular the first and second separation regions of the silicon oxide layer , so that at least a first and a second micromirror device are produced.
A cyclic peptide of the general formula Ia cyclo[(X) m -P-(Y) n ] (Ia) wherein P is the amino acid sequence NPLGFXaaP (SEQ. ID NO: 1), with Xaa being F or L, X is an amino acid sequence having a length of m amino acids, wherein m is 0 or at least 1; Y is an amino sequence having a length of n amino acids, wherein n is 0 or at least 1; and wherein m + n is 0 to 42; and carrying at least one hydrophobic modification at amino acid side chain(s) of X and/or P, wherein said cyclic peptide is not cyclized within the amino acid sequence of P of SEQ ID NO. 1 and not via amino acid side chains of P, wherein the hydrophobic modification is an acylation or addition of hydrophobic moieties, or a pharmaceutically acceptable salt thereof. P is the amino acid sequence NPLGFXaaP (SEQ. ID NO: 1), with Xaa being F or L, X is an amino acid sequence having a length of m amino acids, wherein m is 0 or at least 1; Y is an amino sequence having a length of n amino acids, wherein n is 0 or at least 1; and wherein m + n is 0 to 42; and carrying at least one hydrophobic modification at amino acid side chain(s) of X and/or P, wherein said cyclic peptide is not cyclized within the amino acid sequence of P of SEQ ID NO. 1 and not via amino acid side chains of P, wherein the hydrophobic modification is an acylation or addition of hydrophobic moieties, or a pharmaceutically acceptable salt thereof. wherein n is 0 or at least 1; and wherein m + n is 0 to 42;
A device for removing the core from a cast workpiece, wherein the device comprises at least one hammer , wherein the device comprises at least one adjusting means for setting a striking frequency of the at least one hammer , wherein the device comprises several hammers coupled to one another for phase-shifted striking movements, characterized in that the hammers are jackhammers and the striking movements of each hammer are phase-shifted with respect to each of the striking movements of the other hammers .
A tool for manipulating a target with combustion products from a propellant , the tool comprising: a housing defining a chamber ; a propellant source located within the chamber; an ignition mechanism for igniting propellant at the propellant source; and at least one chamber outlet for combustion products from the propellant source; wherein the at least one chamber outlet is provided by a sacrificial wall portion of the chamber housing , the sacrificial wall portion being removable by the action of combustion products following ignition of propellant at the propellant source; and, wherein the tool is configured to automatically open the chamber outlet from a closed condition, following ignition of the propellant at the propellant source; and wherein the at least one chamber outlet defines or comprises a nozzle for directing combustion products at a target. a housing defining a chamber ; a propellant source located within the chamber; an ignition mechanism for igniting propellant at the propellant source; and at least one chamber outlet for combustion products from the propellant source; wherein the at least one chamber outlet is provided by a sacrificial wall portion of the chamber housing , the sacrificial wall portion being removable by the action of combustion products following ignition of propellant at the propellant source; and, wherein the tool is configured to automatically open the chamber outlet from a closed condition, following ignition of the propellant at the propellant source; and wherein the at least one chamber outlet defines or comprises a nozzle for directing combustion products at a target.
A method comprising: determining, by a proxy device , whether any security service, of one or more security services, is to inspect all encrypted traffic of a secure session; determining, by the proxy device and when no security service is to inspect all encrypted traffic of the secure session, whether any security service, of the one or more security services, is to inspect encrypted traffic in a client-to-server, C2S, direction, and whether any of the one or more of the security devices is to inspect encrypted traffic in a server-to-client, S2C, direction; determining, by the proxy device and when a security service is to inspect encrypted traffic in the C2S direction and when no security device is to inspect encrypted traffic in the S2C direction, that an offload service includes inspecting encrypted traffic traveling in the C2S direction; identifying, by the proxy device, the offload service based on determining that the offload service includes inspecting the encrypted traffic traveling in the C2S direction, wherein the offload service is identified after an establishment of the secure session; and applying, by the proxy device, the offload service based on identifying the offload service. determining, by a proxy device , whether any security service, of one or more security services, is to inspect all encrypted traffic of a secure session; determining, by the proxy device and when no security service is to inspect all encrypted traffic of the secure session, whether any security service, of the one or more security services, is to inspect encrypted traffic in a client-to-server, C2S, direction, and whether any of the one or more of the security devices is to inspect encrypted traffic in a server-to-client, S2C, direction; determining, by the proxy device and when a security service is to inspect encrypted traffic in the C2S direction and when no security device is to inspect encrypted traffic in the S2C direction, that an offload service includes inspecting encrypted traffic traveling in the C2S direction; identifying, by the proxy device, the offload service based on determining that the offload service includes inspecting the encrypted traffic traveling in the C2S direction, wherein the offload service is identified after an establishment of the secure session; and applying, by the proxy device, the offload service based on identifying the offload service.
Use of a pressure-sensitive adhesive comprising at least 60 wt% of a polymer blend, where the polymer blend consists of a first polymer component A, a second polymer component B, and optionally one or more further polymer components, where the first polymer component A is present at not less than x wt% in the polymer blend, where 90 ≤ x ≤ 99, and where the second polymer component B and any further polymer components present are present in total at y wt% in the polymer blend, where y = 100 - x, where each polymer component derives to an extent of at least 60 wt% from (meth)acrylic monomers, characterized in that none of the polymer components is homogeneously miscible at room temperature with any of the other polymer components, and so a multiphase system is present, for bonding printing plates to surfaces, more particularly to curved surfaces.
A controlling device , comprising: a casing having an opening; and an input device disposed in the opening comprised of a moveable touch sensitive surface positioned above a plurality of switches ; wherein the controlling device is configured to respond to an activation of at least one of the plurality of switches caused by a movement of the touch sensitive surface resulting from an input at an input location upon the touch sensitive surface by using the input location and a current one of a plurality of operating modes of the controlling device to retrieve from a library of command data stored in a memory of the controlling device a command data for use in controlling a functional operation of an appliance and to use the retrieved command data to transmit a command signal to the appliance via use of a transmission protocol recognisable by the appliance . a casing having an opening; and an input device disposed in the opening comprised of a moveable touch sensitive surface positioned above a plurality of switches ; wherein the controlling device is configured to respond to an activation of at least one of the plurality of switches caused by a movement of the touch sensitive surface resulting from an input at an input location upon the touch sensitive surface by using the input location and a current one of a plurality of operating modes of the controlling device to retrieve from a library of command data stored in a memory of the controlling device a command data for use in controlling a functional operation of an appliance and to use the retrieved command data to transmit a command signal to the appliance via use of a transmission protocol recognisable by the appliance .
An electrical stimulation device comprising: a helically formed electrode lead adapted for percutaneous insertion within an animal body, with a layer of insulation partially covering the helically formed electrode lead and a de-insulated portion forming a stimulation electrode ; and a pulse generator operatively coupled with the helically formed electrode lead , wherein the pulse generator is configured to deliver an intensity of electrical stimulation through the stimulation electrode to activate motor axons of at least one muscle in a back of the animal body causing muscle contraction of the at least one muscle without activating painful sensory axons. a helically formed electrode lead adapted for percutaneous insertion within an animal body, with a layer of insulation partially covering the helically formed electrode lead and a de-insulated portion forming a stimulation electrode ; and a pulse generator operatively coupled with the helically formed electrode lead , wherein the pulse generator is configured to deliver an intensity of electrical stimulation through the stimulation electrode to activate motor axons of at least one muscle in a back of the animal body causing muscle contraction of the at least one muscle without activating painful sensory axons.
A process for preparing an Iron-exchanged zeolite, the process comprising combining a zeolite with Iron(III) cations in an aqueous medium such that the Iron(III) cations are exchanged into or onto the zeolite to thus form an lron(lll)-exchanged zeolite, wherein the exchange of Iron(III) into or onto the zeolite is carried out at a temperature of 40 °C to 70 °C for a time of 30 to 90 minutes, wherein the zeolite has a chabazite (CHA) structure and wherein the aqueous medium further comprises a buffering agent which comprises ammonium acetate.
A holding device for tools required for component supply comprising: a feeder attachment table on which multiple tape feeders are attached lined up in a lengthwise direction, the tape feeders being configured to feed component holding tape (T) that holds multiple components and position multiple of the components respectively at a supply position; a first reel holder provided at a rear side of the feeder attachment table and configured to hold lined up multiple tape reels on which the component holding tape (T) is wound; a second reel holder provided below the first reel holder and configured to hold lined up multiple of the tape reels ; and a second holder movement allowance mechanism configured to allow the second reel holder to move upwards, wherein the second reel holder is able to be positioned at a rear side of the first reel holder . a feeder attachment table on which multiple tape feeders are attached lined up in a lengthwise direction, the tape feeders being configured to feed component holding tape (T) that holds multiple components and position multiple of the components respectively at a supply position; a first reel holder provided at a rear side of the feeder attachment table and configured to hold lined up multiple tape reels on which the component holding tape (T) is wound; a second reel holder provided below the first reel holder and configured to hold lined up multiple of the tape reels ; and a second holder movement allowance mechanism configured to allow the second reel holder to move upwards, wherein the second reel holder is able to be positioned at a rear side of the first reel holder .
A method for producing a dispersion liquid containing silver nano-particles, comprising: mixing a silver compound with amines comprising an aliphatic hydrocarbon monoamine (A) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total; an aliphatic hydrocarbon monoamine (B) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine (C) comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total; to form a complex compound comprising the silver compound and the amines; wherein the amount of the aliphatic monoamine (A) is in a range of 5 mol% to 65 mol%; the amount of the aliphatic monoamine (B) is in a range of 5 mol% to 70 mol%; and the amount of the aliphatic diamine (C) is in a range of 5 mol% to 50 mol%, on the basis of the total amount of the amines [(A) + (B) + (C)]; thermally decomposing the complex compound by heating to form silver nano-particles; and dispersing the silver nano-particles in a dispersion solvent containing 50 to 90% by weight of an alcohol-based solvent and 10 to 50% by weight of an aliphatic hydrocarbon-based solvent. mixing a silver compound with amines comprising an aliphatic hydrocarbon monoamine (A) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total; an aliphatic hydrocarbon monoamine (B) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine (C) comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total; an aliphatic hydrocarbon monoamine (A) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total; an aliphatic hydrocarbon monoamine (B) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine (C) comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total; to form a complex compound comprising the silver compound and the amines; wherein the amount of the aliphatic monoamine (A) is in a range of 5 mol% to 65 mol%; the amount of the aliphatic monoamine (B) is in a range of 5 mol% to 70 mol%; and the amount of the aliphatic diamine (C) is in a range of 5 mol% to 50 mol%, on the basis of the total amount of the amines [(A) + (B) + (C)]; thermally decomposing the complex compound by heating to form silver nano-particles; and dispersing the silver nano-particles in a dispersion solvent containing 50 to 90% by weight of an alcohol-based solvent and 10 to 50% by weight of an aliphatic hydrocarbon-based solvent.
A device for capturing a guide wire comprising a snaring device and an auxiliary catheter , wherein the auxiliary catheter is configured to slidingly accommodate the guide wire to be caught so as to extend a distal end thereof beyond the distal end of the guide wire in order to be caught by the snaring device while the guide wire is in a retracted position in the auxiliary catheter , wherein the auxiliary catheter is at least partially echo-transparent and/or radio-transparent over at least a portion thereof and is provided with a radio-opaque and/or echo-opaque portion near an end hole thereof.
A sintered sliding body having a composition comprising, by mass%, 10% to 35% of Ni, 5% to 12% of Sn, 0% to 0.9% of P, and 4.1% to 9% of C, with a remainder of Cu and inevitable impurities, wherein the sintered sliding body is a sintered body of a plurality of Cu-Ni alloy grains containing Sn and C, the sintered sliding body has a structure in which pores are dispersedly formed in grain boundaries of the plurality of alloy grains and free graphite is distributed in the pores , an amount of C in a metal matrix including the alloy grains is, by mass%, 0.001% to 0.07%, a porosity of the sintered body is 8% to 21%, and the porosity is measured in accordance with the open porosity test method JPMA M 02-1992 of sintered metal material published by the Japan Powder Metallurgy Association. wherein the sintered sliding body is a sintered body of a plurality of Cu-Ni alloy grains containing Sn and C, the sintered sliding body has a structure in which pores are dispersedly formed in grain boundaries of the plurality of alloy grains and free graphite is distributed in the pores , an amount of C in a metal matrix including the alloy grains is, by mass%, 0.001% to 0.07%, a porosity of the sintered body is 8% to 21%, and the porosity is measured in accordance with the open porosity test method JPMA M 02-1992 of sintered metal material published by the Japan Powder Metallurgy Association.
A peptide for intracellular delivery of a bioactive substance, comprising (a) amino acid sequence of SEQ ID NO: 3 (mVI); and (b) amino acid sequence RKKRRQRRR.