mhurhangee/patent-ind-claim-en huggingface dataset:
A vision restoration device, comprising: an intraocular projection component configured to be implanted within an eye of the subject and comprising: a projector configured to project one or more digital images onto a central retina of the subject wherein the projector comprises an electronic display and a light emitting component within the projector configured to generate and direct light at the electronic display , and one or more lenses coupled to or housed within the projector and configured to focus the one or more digital images ; and an implantable extraocular component configured to be implanted within the subject, the extraocular component comprising: one or more processors programmed to execute instructions stored in a memory to wirelessly receive the one or more digital images from an extracorporeal device; and a trans-scleral communication wire connecting the intraocular projection component to the extraocular component , wherein the trans-scleral communication wire is configured to transmit digital data between the extraocular component and the intraocular projection component . an intraocular projection component configured to be implanted within an eye of the subject and comprising: a projector configured to project one or more digital images onto a central retina of the subject wherein the projector comprises an electronic display and a light emitting component within the projector configured to generate and direct light at the electronic display , and one or more lenses coupled to or housed within the projector and configured to focus the one or more digital images ; and a projector configured to project one or more digital images onto a central retina of the subject wherein the projector comprises an electronic display and a light emitting component within the projector configured to generate and direct light at the electronic display , and one or more lenses coupled to or housed within the projector and configured to focus the one or more digital images ; and an implantable extraocular component configured to be implanted within the subject, the extraocular component comprising: one or more processors programmed to execute instructions stored in a memory to wirelessly receive the one or more digital images from an extracorporeal device; and a trans-scleral communication wire connecting the intraocular projection component to the extraocular component , wherein the trans-scleral communication wire is configured to transmit digital data between the extraocular component and the intraocular projection component .
A pharmaceutical composition formulated for topical application to a subject, the composition comprising 0.1% gentamicin by weight, 5 to 15 mg/ml diethylenetriamine pentaacetic acid (DTPA), and an oil-in-water emulsion.
A system for reducing a temperature of district heating heat transfer fluid flowing in a return conduit of a district heating grid , the system configured to be connected to the return conduit of the district heating grid and comprising: an intermediate circuit; a heat exchanger having : a primary side inlet configured to be connected to the return conduit of the district heating grid via a primary side feed conduit , a primary side outlet configured to be connected to the return conduit of the district heating grid via a primary side return conduit , a secondary side inlet connected to an intermediate circuit , a secondary side outlet connected to the intermediate circuit , wherein the heat exchanger is configured to exchange heat from district heating heat transfer fluid entering the primary side inlet of the heat exchanger to intermediate circuit heat transfer fluid entering the secondary side inlet of the heat exchanger , and wherein the intermediate circuit comprises a heat pump configured to pump heat from intermediate circuit heat transfer fluid of the intermediate circuit to heating circuit heat transfer fluid of a heating circuit , wherein the intermediate circuit further comprises an energy storage configured to store thermal energy, characterized in that the intermediate circuit further comprises a second valve configured to control the flow of intermediate circuit heat transfer fluid routed to the energy storage or to the heat pump . an intermediate circuit; a heat exchanger having : a primary side inlet configured to be connected to the return conduit of the district heating grid via a primary side feed conduit , a primary side outlet configured to be connected to the return conduit of the district heating grid via a primary side return conduit , a secondary side inlet connected to an intermediate circuit , a secondary side outlet connected to the intermediate circuit , wherein the heat exchanger is configured to exchange heat from district heating heat transfer fluid entering the primary side inlet of the heat exchanger to intermediate circuit heat transfer fluid entering the secondary side inlet of the heat exchanger , and wherein the intermediate circuit comprises a heat pump configured to pump heat from intermediate circuit heat transfer fluid of the intermediate circuit to heating circuit heat transfer fluid of a heating circuit , wherein the intermediate circuit further comprises an energy storage configured to store thermal energy, characterized in that the intermediate circuit further comprises a second valve configured to control the flow of intermediate circuit heat transfer fluid routed to the energy storage or to the heat pump .
A method of forming a plurality of lipid bilayers over an array of cells in a nanopore based sequencing chip, each of the cells comprising a well , the method comprising: flowing a salt buffer solution over the array of cells in the nanopore based sequencing chip to substantially fill the wells in the cells with the salt buffer solution; flowing a lipid and solvent mixture over the array of cells to deposit the lipid and solvent mixture over at least some of the wells in the cells; detecting that a first portion of the cells each having a lipid bilayer over its well and detecting that a second portion of the cells each having a lipid membrane but not a lipid bilayer over its well ; and characterised by : selectively applying an electrical lipid-thinning stimulus to the second portion of the cells but not to the first portion of the cells, wherein the detecting of whether a cell has a lipid bilayer over its well comprises applying an electrical measurement stimulus to the cell, and wherein the electrical measurement stimulus has an absolute magnitude that is smaller than an absolute magnitude of the electrical lipid-thinning stimulus. flowing a salt buffer solution over the array of cells in the nanopore based sequencing chip to substantially fill the wells in the cells with the salt buffer solution; flowing a lipid and solvent mixture over the array of cells to deposit the lipid and solvent mixture over at least some of the wells in the cells; detecting that a first portion of the cells each having a lipid bilayer over its well and detecting that a second portion of the cells each having a lipid membrane but not a lipid bilayer over its well ; and characterised by : selectively applying an electrical lipid-thinning stimulus to the second portion of the cells but not to the first portion of the cells, selectively applying an electrical lipid-thinning stimulus to the second portion of the cells but not to the first portion of the cells, wherein the detecting of whether a cell has a lipid bilayer over its well comprises applying an electrical measurement stimulus to the cell, and wherein the electrical measurement stimulus has an absolute magnitude that is smaller than an absolute magnitude of the electrical lipid-thinning stimulus.
A user equipment comprising: at least one processor; and at least one memory storing instructions that, when executed by the at least one processor, cause the user equipment at least to perform: - receiving conditional handover information from a first network node ; and - retaining at least a part of the conditional handover information during a re-establishment procedure following a failure affecting a radio link of the user equipment; - receiving , from a second network node , renewed conditional handover information during the re-establishment procedure. at least one processor; and at least one memory storing instructions that, when executed by the at least one processor, cause the user equipment at least to perform: - receiving conditional handover information from a first network node ; and - retaining at least a part of the conditional handover information during a re-establishment procedure following a failure affecting a radio link of the user equipment; - receiving , from a second network node , renewed conditional handover information during the re-establishment procedure. - receiving conditional handover information from a first network node ; and - retaining at least a part of the conditional handover information during a re-establishment procedure following a failure affecting a radio link of the user equipment; - receiving , from a second network node , renewed conditional handover information during the re-establishment procedure.
An addition cure siloxane composition comprising: (i) a polyorganosiloxane comprising at least two alkenyl groups; (ii) an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to silicone atoms; (iii) an inorganic ethylene adsorbent; wherein the inorganic ethylene adsorbent comprises a zeolite doped with palladium. (i) a polyorganosiloxane comprising at least two alkenyl groups; (ii) an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to silicone atoms; (iii) an inorganic ethylene adsorbent;
A positive electrode active material comprising a lithium transition metal oxide in which nickel (Ni) is included in an amount of greater than 50 mol% based on a total number of moles of transition metals excluding lithium, wherein the positive electrode active material is in a form of single particles, a structure belonging to space group FD3-M and a structure belonging to space group Fm3m are formed in a region of 50 nm or less from a surface of the positive electrode active material in a center direction, and a generation rate of fine powder having an average particle diameter D50 of 1 um or less is in a range of 5% to 30% when the positive electrode active material is rolled at 650 kgf/cm 2 wherein the lithium transition metal oxide is represented by Formula 1: [Formula 1] Li 1+a Ni x Co y Mn z M1 w O 2 wherein, in Formula 1, M1 is at least one selected from the group consisting of aluminum (Al), magnesium (Mg), vanadium (V), titanium (Ti), and zirconium (Zr), and 0 ≤ a ≤ 0.20 , 0.5 < x < 1.0 , 0 < y < 0.5 , 0 < z < 0.5 , 0 ≤ w ≤ 0.05 , and x + y + z + w = 1 . wherein the positive electrode active material is in a form of single particles, a structure belonging to space group FD3-M and a structure belonging to space group Fm3m are formed in a region of 50 nm or less from a surface of the positive electrode active material in a center direction, and a generation rate of fine powder having an average particle diameter D50 of 1 um or less is in a range of 5% to 30% when the positive electrode active material is rolled at 650 kgf/cm 2 wherein the lithium transition metal oxide is represented by Formula 1: [Formula 1] Li 1+a Ni x Co y Mn z M1 w O 2 wherein, in Formula 1, M1 is at least one selected from the group consisting of aluminum (Al), magnesium (Mg), vanadium (V), titanium (Ti), and zirconium (Zr), and 0 ≤ a ≤ 0.20 , 0.5 < x < 1.0 , 0 < y < 0.5 , 0 < z < 0.5 , 0 ≤ w ≤ 0.05 , and x + y + z + w = 1 .
Side-channel compressor for a fuel cell system for conveying and/or compressing a gaseous medium, in particular hydrogen, having a housing , having a compressor chamber which is situated in the housing and has at least one encircling side channel , having a compressor wheel which is situated in the housing and is disposed on a drive shaft rotatable about a rotation axis , wherein the compressor wheel on the circumference thereof has conveyor cells that are disposed in the region of the compressor chamber , and having a gas inlet opening and a gas outlet opening which are in each case configured on the housing and by way of the compressor chamber , in particular two side channels (19a,b), are fluidically connected to one another, wherein the housing has a first and second approach surface , each facing the compressor wheel and running axially to the rotation axis , and wherein configured in these regions are in each case one inner and one outer axial gap between the housing and the compressor wheel , wherein mounting of the rotatable components of the side-channel compressor is implemented by means of a first bearing and a second bearing , wherein the first bearing is situated between the drive shaft and the housing , and the second bearing is situated between the compressor wheel and the housing , wherein the housing has a housing upper part and a housing lower part , wherein the housing lower part has a cylindrical appendage encircling the rotation axis , characterized in that a bearing preloading force, which runs axially to the rotation axis and acts on the first bearing and/or on the second bearing , is adjusted by means of a spacer disc , wherein the spacer disc is situated axially to the rotation axis between the cylindrical appendage and the housing upper part .
A lithographic printing plate precursor comprising at least a heat-sensitive layer and an ink repellent layer disposed on a substrate, the rate of gas generation from 1 m 3 of the heat-sensitive layer being 6.5 × 10 5 g/m 3 to 12.5 × 10 5 g/m 3 as determined by GC-MS analysis in which the lithographic printing plate precursor is heated in a nitrogen stream at 450°C for 5 minutes.
A compound of formula I: which is 5-ethyl-4-methyl- N -[4-[(2 S ) morpholin-2-yl]phenyl]-1H-pyrazole-3-carboxamide, or a pharmaceutically suitable acid addition salt thereof.
Method for manufacturing a horological component comprising the following steps: a) providing a wafer comprising a first silicon layer , a second silicon layer and, in between, an intermediate silicon oxide layer ; b) etching the first silicon layer to form therein a first part of the horological component and the second silicon layer to form therein a second part of the horological component ; c) eliminating the intermediate silicon oxide layer between an element of the first part and an element of the second part ; characterised in that it comprises the following additional steps: d) thermally oxidising said elements without them coming into contact with each other, and then deoxidising said elements ; e) repeating step d) one or more times until a predetermined distance (d2) between said elements is obtained; and in that it comprises at least one of the following features (i) to (v): (i) said elements are two crossed elastic blades and the oxidation of step d) leads to the formation of a silicon oxide layer around said blades; (ii) steps d) and e) are carried out while the horological component is still attached to the wafer by silicon material bridges left during etching; (iii) the intermediate silicon oxide layer has a thickness of 3 μm; (iv) the wafer is a multiple substrate on insulator; (v) the horological component is a lever, a rocker, a rake, a finger or a wheel. a) providing a wafer comprising a first silicon layer , a second silicon layer and, in between, an intermediate silicon oxide layer ; b) etching the first silicon layer to form therein a first part of the horological component and the second silicon layer to form therein a second part of the horological component ; c) eliminating the intermediate silicon oxide layer between an element of the first part and an element of the second part ; d) thermally oxidising said elements without them coming into contact with each other, and then deoxidising said elements ; e) repeating step d) one or more times until a predetermined distance (d2) between said elements is obtained; (i) said elements are two crossed elastic blades and the oxidation of step d) leads to the formation of a silicon oxide layer around said blades; (ii) steps d) and e) are carried out while the horological component is still attached to the wafer by silicon material bridges left during etching; (iii) the intermediate silicon oxide layer has a thickness of 3 μm; (iv) the wafer is a multiple substrate on insulator; (v) the horological component is a lever, a rocker, a rake, a finger or a wheel.
A surgical system comprising: an ultrasound system comprising an ultrasound probe configured to obtain a two-dimensional ultrasound image of a surgical site; a head-mounted display; a tracking system configured to determine a pose of the ultrasound probe ; and a computer system configured to: receive the two-dimensional ultrasound image from the ultrasound system, extract a feature from the two-dimensional ultrasound image, the feature associated with an anatomical structure at the surgical site, determine the pose of the ultrasound probe via the tracking system , update a three-dimensional feature model associated with the anatomical structure with the extracted feature based on the determined pose of the ultrasound probe , determine where features of the updated three-dimensional feature model are located relative to a field of view of the head-mounted display, and display the features of the updated three-dimensional feature model that are located within the field of view of the head-mounted display. an ultrasound system comprising an ultrasound probe configured to obtain a two-dimensional ultrasound image of a surgical site; a head-mounted display; a tracking system configured to determine a pose of the ultrasound probe ; and a computer system configured to: receive the two-dimensional ultrasound image from the ultrasound system, extract a feature from the two-dimensional ultrasound image, the feature associated with an anatomical structure at the surgical site, determine the pose of the ultrasound probe via the tracking system , update a three-dimensional feature model associated with the anatomical structure with the extracted feature based on the determined pose of the ultrasound probe , determine where features of the updated three-dimensional feature model are located relative to a field of view of the head-mounted display, and display the features of the updated three-dimensional feature model that are located within the field of view of the head-mounted display. receive the two-dimensional ultrasound image from the ultrasound system, extract a feature from the two-dimensional ultrasound image, the feature associated with an anatomical structure at the surgical site, determine the pose of the ultrasound probe via the tracking system , update a three-dimensional feature model associated with the anatomical structure with the extracted feature based on the determined pose of the ultrasound probe , determine where features of the updated three-dimensional feature model are located relative to a field of view of the head-mounted display, and display the features of the updated three-dimensional feature model that are located within the field of view of the head-mounted display.
Method for selectively activating a thermostable hydrolase at a temperature above T1, said method comprising the following steps: a) providing, at a temperature below T1, wherein said temperature T1 is at least 60°C, a composition comprising the thermostable hydrolase and a temperature sensitive inhibitor, wherein said hydrolase is Aqualysin I and is resistant to irreversible inactivation at a temperature above T1, wherein said inhibitor is a trypsin inhibitor from corn, oats, rye, rice or soybean or a recombinant, semi-synthetic, or synthetic variant thereof and wherein the inhibitor becomes irreversibly inactivated at a temperature of T1 or higher, and wherein said thermostable hydrolase and said temperature sensitive inhibitor form a hydrolase-inhibitor complex at a temperature below T1, wherein said inhibitor inhibits the activity of said hydrolase in said complex at a temperature below T1 and dissociates from said complex at a temperature of T1, and; b) elevating the temperature of said composition to a temperature above T1, thereby activating the hydrolase. a) providing, at a temperature below T1, wherein said temperature T1 is at least 60°C, a composition comprising the thermostable hydrolase and a temperature sensitive inhibitor, wherein said hydrolase is Aqualysin I and is resistant to irreversible inactivation at a temperature above T1, wherein said inhibitor is a trypsin inhibitor from corn, oats, rye, rice or soybean or a recombinant, semi-synthetic, or synthetic variant thereof and wherein the inhibitor becomes irreversibly inactivated at a temperature of T1 or higher, and wherein said thermostable hydrolase and said temperature sensitive inhibitor form a hydrolase-inhibitor complex at a temperature below T1, wherein said inhibitor inhibits the activity of said hydrolase in said complex at a temperature below T1 and dissociates from said complex at a temperature of T1, and; b) elevating the temperature of said composition to a temperature above T1, thereby activating the hydrolase.
A method of preparing a non-woven fabric for a base cloth of a carpel comprising: preparing a stretched polyester filament fiber having a circular cross section forming a web by integrating the filament fiber in a web form, crimp processing and calendering it; and needle punching the web, wherein the crimping processing is performed such that the stretched filament fiber is piled up on a conveyor net for forming the web and at same time, the stretched filament is treated at 100 to 150 °C for 30 to 60 seconds to form number of crimps of 20 to 40 per 2.54 cm (20 to 40 per inch), and wherein the needle punching is performed in a first step and a second step and in a condition of 300 to 400 stroke rpm in the first step and 600 to 800 stroke rpm in the second step. preparing a stretched polyester filament fiber having a circular cross section forming a web by integrating the filament fiber in a web form, crimp processing and calendering it; and needle punching the web, wherein the crimping processing is performed such that the stretched filament fiber is piled up on a conveyor net for forming the web and at same time, the stretched filament is treated at 100 to 150 °C for 30 to 60 seconds to form number of crimps of 20 to 40 per 2.54 cm (20 to 40 per inch), and wherein the needle punching is performed in a first step and a second step and in a condition of 300 to 400 stroke rpm in the first step and 600 to 800 stroke rpm in the second step.