mhurhangee/patent-ind-claim-en huggingface dataset:
A system for use in performing an intraocular procedure, said system comprising: a laser unit comprising a laser source ; and a plurality of single-use, disposable laser probes coupleable, one at a time, to said laser unit , each single-use, disposable laser probe comprising: a handheld component ; and a fiber optic core extending through the handheld component , the fiber optic core including a proximal end detachably coupleable to the laser unit and a distal end including a delivery tip for emitting laser energy, transmitted via the fiber optic core from said laser source when coupled thereto, to a target tissue for ablation thereof, wherein each of said plurality of single-use, disposable laser probes comprises one or more characteristics tailored to a respective user, including wherein said plurality of single-use, disposable laser probes includes a first probe having a first delivery tip with a first flexibility level and a second probe having a second delivery tip with a second flexibility level different from the first flexibility level. a laser unit comprising a laser source ; and a plurality of single-use, disposable laser probes coupleable, one at a time, to said laser unit , each single-use, disposable laser probe comprising: a handheld component ; and a fiber optic core extending through the handheld component , the fiber optic core including a proximal end detachably coupleable to the laser unit and a distal end including a delivery tip for emitting laser energy, transmitted via the fiber optic core from said laser source when coupled thereto, to a target tissue for ablation thereof, wherein each of said plurality of single-use, disposable laser probes comprises one or more characteristics tailored to a respective user, including wherein said plurality of single-use, disposable laser probes includes a first probe having a first delivery tip with a first flexibility level and a second probe having a second delivery tip with a second flexibility level different from the first flexibility level. a handheld component ; and a fiber optic core extending through the handheld component , the fiber optic core including a proximal end detachably coupleable to the laser unit and a distal end including a delivery tip for emitting laser energy, transmitted via the fiber optic core from said laser source when coupled thereto, to a target tissue for ablation thereof, wherein each of said plurality of single-use, disposable laser probes comprises one or more characteristics tailored to a respective user, including wherein said plurality of single-use, disposable laser probes includes a first probe having a first delivery tip with a first flexibility level and a second probe having a second delivery tip with a second flexibility level different from the first flexibility level.
A composition for use in dental tissue repair and/or regeneration, comprising a triacrylate and a porous scaffold, wherein the triacrylate promotes adhesion and/or proliferation of dental pulp stem cells (DPSCs).
A grinding ball comprising, by weight: - a carbon content comprised between 1.1 and 1.4%, - a chromium content comprised between 10 and 14%, - a manganese content comprised between 0.8 and 1.5%, - a silicon content comprised between 0.6 and 1%, - a molybdenum content of less than 1%, - a nickel content of less than 1%, - any impurities with a total content of less than 0.5%, - the balance to obtain 100% being iron, said grinding ball comprising a discrete distribution of chromium carbides and having a microstructure comprising martensite with a percentage greater than 50%, residual austenite with a percentage comprised between 7 and 25%, a total fraction of perlite and bainite comprised between 2 and 10%, and chromium carbides with a percentage of less than or equal to 22%. - a carbon content comprised between 1.1 and 1.4%, - a chromium content comprised between 10 and 14%, - a manganese content comprised between 0.8 and 1.5%, - a silicon content comprised between 0.6 and 1%, - a molybdenum content of less than 1%, - a nickel content of less than 1%, - any impurities with a total content of less than 0.5%, - the balance to obtain 100% being iron,
Stimulation device for the clitoris for sexual arousal until reaching climax, comprising: one pressure field generating arrangement for indirect stimulation of the clitoris with: one first chamber with at least one opening; and one second chamber with at least one opening for placement over the clitoris ; and one connection element that connects the first chamber to the second chamber ; and one drive element that varies the volume of the first chamber through a deviation of a flexible wall of the first chamber such that a stimulating pressure field is generated via the connection element in the second chamber ; and one control device that activates the drive unit ; and one housing that contains the pressure field generating arrangement ; one appendage that is configured such that it can be inserted into the vagina, for direct stimulation of the vagina, wherein the appendage is movable attached to the housing, and wherein the appendage comprises a switchable vibration device ; wherein the pressure field generated in the second chamber comprises a pattern of negative and positive pressures, modulated onto normal pressure; and wherein the first chamber with its at least one opening is connected exclusively to the second chamber : and wherein the stimulation device does not comprise any valves; wherein the housing and the appendage comprise a silicone coating. one pressure field generating arrangement for indirect stimulation of the clitoris with: one first chamber with at least one opening; and one second chamber with at least one opening for placement over the clitoris ; and one connection element that connects the first chamber to the second chamber ; and one drive element that varies the volume of the first chamber through a deviation of a flexible wall of the first chamber such that a stimulating pressure field is generated via the connection element in the second chamber ; and one first chamber with at least one opening; and one second chamber with at least one opening for placement over the clitoris ; and one connection element that connects the first chamber to the second chamber ; and one drive element that varies the volume of the first chamber through a deviation of a flexible wall of the first chamber such that a stimulating pressure field is generated via the connection element in the second chamber ; and one control device that activates the drive unit ; and one housing that contains the pressure field generating arrangement ; one appendage that is configured such that it can be inserted into the vagina, for direct stimulation of the vagina, wherein the appendage is movable attached to the housing, and wherein the appendage comprises a switchable vibration device ; wherein the pressure field generated in the second chamber comprises a pattern of negative and positive pressures, modulated onto normal pressure; and wherein the first chamber with its at least one opening is connected exclusively to the second chamber : and wherein the stimulation device does not comprise any valves; wherein the housing and the appendage comprise a silicone coating.
A method in a radio network node for reconfiguring mappings from Carrier Indicator Field-values, referred to as "CIF-values", to component carriers, wherein each CIF-value is mapped to a respective component carrier comprising a respective shared data channel, wherein each respective shared data channel is addressed by at least one downlink control channel, on another component carrier or on the same component carrier, carrying said each CIF-value, and the component carriers are managed by the radio network node , wherein the radio network node and the user equipment are comprised in a multi-carrier radio communication system , wherein the method comprises reconfiguring mappings from CIF-values to component carriers, while maintaining at least one mapping of CIF-value to component carrier and changing at least one mapping of CIF-value to component carrier transmitted on the component carrier of the maintained at least one mapping to a mapping to another component carrier, wherein the component carrier of the maintained at least one mapping from CIF-value to component carrier comprises said at least one downlink control channel and a shared data channel addressed by said at least one downlink control channel, wherein the component carrier of the changed at least one mapping from CIF-value to component carrier comprises a shared data channel addressed by a downlink control channel on another component carrier, and sending at least one of the reconfigured mappings from CIF-values to component carriers to the user equipment . reconfiguring mappings from CIF-values to component carriers, while maintaining at least one mapping of CIF-value to component carrier and changing at least one mapping of CIF-value to component carrier transmitted on the component carrier of the maintained at least one mapping to a mapping to another component carrier, wherein the component carrier of the maintained at least one mapping from CIF-value to component carrier comprises said at least one downlink control channel and a shared data channel addressed by said at least one downlink control channel, wherein the component carrier of the changed at least one mapping from CIF-value to component carrier comprises a shared data channel addressed by a downlink control channel on another component carrier, and sending at least one of the reconfigured mappings from CIF-values to component carriers to the user equipment .
Device for converting electrical energy from electrically charged particles in the earth atmosphere , comprising: • a positive electrode , the positive electrode comprising a composition arranged in a plate shape, the composition comprising a binding agent and a filler, wherein the filler is dispersed through the binding agent, and the filler comprises at least titanium dioxide particles and activated carbon particles, and wherein the positive electrode is arranged to face the earth atmosphere to attract positively charged particles from the earth atmosphere which can be subsequently captured by the positive electrode ; • a negative electrode , arranged in a plate shape, the negative electrode comprising a metal alloy, wherein the metal alloy comprises aluminium and magnesium; • a gas permeable insulator ; wherein the positive electrode , the gas permeable insulator and the negative electrode are stacked into a laminated structure, and wherein the gas permeable insulator is arranged as an intermediate layer between the positive electrode and the negative electrode . • a positive electrode , the positive electrode comprising a composition arranged in a plate shape, the composition comprising a binding agent and a filler, wherein the filler is dispersed through the binding agent, and the filler comprises at least titanium dioxide particles and activated carbon particles, and wherein the positive electrode is arranged to face the earth atmosphere to attract positively charged particles from the earth atmosphere which can be subsequently captured by the positive electrode ; • a negative electrode , arranged in a plate shape, the negative electrode comprising a metal alloy, wherein the metal alloy comprises aluminium and magnesium; • a gas permeable insulator ; wherein the positive electrode , the gas permeable insulator and the negative electrode are stacked into a laminated structure, and wherein the gas permeable insulator is arranged as an intermediate layer between the positive electrode and the negative electrode .
An ophthalmic lens comprising: a base lens substrate having a front optical surface and a back optical surface ; and characterized by a thin film laminate incorporated into at least a portion of the base lens substrate through an injection molding process or a cast molding process, the thin film laminate having an array of microlenses formed by vapor deposition of a material layer having a refractive index different than a refractive index of the base lens substrate; wherein the ophthalmic lens having a vertex distance in a range of 11 to 15 millimeters in front of a user's eye such that a viewer could resolve an optical power change on the front optical surface and/or the back optical surface due to the presence of the array of microlenses. a base lens substrate having a front optical surface and a back optical surface ; and characterized by a thin film laminate incorporated into at least a portion of the base lens substrate through an injection molding process or a cast molding process, the thin film laminate having an array of microlenses formed by vapor deposition of a material layer having a refractive index different than a refractive index of the base lens substrate; wherein the ophthalmic lens having a vertex distance in a range of 11 to 15 millimeters in front of a user's eye such that a viewer could resolve an optical power change on the front optical surface and/or the back optical surface due to the presence of the array of microlenses.
Cooling method for a hydraulic element of a cooling oil circuit of a motor vehicle , wherein the cooling oil circuit is designed to cool an electric machine and a transmission, wherein the cooling oil circuit has an oil pump (M) and a residual pressure valve, and wherein the electric machine can be coupled into the transmission, the cooling method comprising: identifying (11; 21) a pressure request of the hydraulic element on the basis of an approximation function taking into account a volume flow request of the hydraulic element depending on a residual pressure valve parameter; determining (12; 22) an actual pressure on the hydraulic element depending on the residual pressure valve parameter; determining (13; 23) a target function on the basis of a difference in the pressure request and the actual pressure; and minimizing (14; 24) the target function such that the target function converges to zero in an iterative method for determining a required volume flow of the oil pump for cooling the hydraulic element. identifying (11; 21) a pressure request of the hydraulic element on the basis of an approximation function taking into account a volume flow request of the hydraulic element depending on a residual pressure valve parameter; determining (12; 22) an actual pressure on the hydraulic element depending on the residual pressure valve parameter; determining (13; 23) a target function on the basis of a difference in the pressure request and the actual pressure; and minimizing (14; 24) the target function such that the target function converges to zero in an iterative method for determining a required volume flow of the oil pump for cooling the hydraulic element.
Method for manufacturing a security element for securing valuable objects, which includes a feature layer with first and second feature regions in which different first or second embossing lacquer layers are present, wherein, in the method, - a hydrophilic layer of a first embossing lacquer is applied to a carrier in the first feature regions , the applied layer is embossed with an embossed structure that generates a first optical effect and cured, - a layer of a second, different embossing lacquer is provided on a printing tool , and, - in a printing step, the printing tool is brought into contact with the carrier , and the second embossing lacquer is thereby transferred. - a hydrophilic layer of a first embossing lacquer is applied to a carrier in the first feature regions , the applied layer is embossed with an embossed structure that generates a first optical effect and cured, - a layer of a second, different embossing lacquer is provided on a printing tool , and, - in a printing step, the printing tool is brought into contact with the carrier , and the second embossing lacquer is thereby transferred.
A method for preparing nanoparticle organosols using phase transfer, comprising: introducing nanoparticles, or precursors of said nanoparticles, into an aqueous solution to produce a colloidal dispersion of nanoparticles; adjusting the pH of the colloidal dispersion to a pH between 8-10; reacting the colloidal dispersion with a transfer agent that is a carboxylic acid; adding an immiscible organic carrier fluid; stirring the reaction mixture until the nanoparticles migrate into the organic phase and an emulsion is formed; separating the emulsion into two phases comprising a bottom aqueous solution and an upper organic fluid containing the nanoparticles; and collecting the organic fluid colloidal dispersion of nanoparticles, wherein the volume ratio of the transfer agent to the organic carrier is equal to or less than 15%, and wherein the step of separating the emulsion further comprises adding a demulsifier to the emulsion. introducing nanoparticles, or precursors of said nanoparticles, into an aqueous solution to produce a colloidal dispersion of nanoparticles; adjusting the pH of the colloidal dispersion to a pH between 8-10; reacting the colloidal dispersion with a transfer agent that is a carboxylic acid; adding an immiscible organic carrier fluid; stirring the reaction mixture until the nanoparticles migrate into the organic phase and an emulsion is formed; separating the emulsion into two phases comprising a bottom aqueous solution and an upper organic fluid containing the nanoparticles; and collecting the organic fluid colloidal dispersion of nanoparticles, wherein the volume ratio of the transfer agent to the organic carrier is equal to or less than 15%, and wherein the step of separating the emulsion further comprises adding a demulsifier to the emulsion.
A manufacturing method of a metal oxide thin film transistor, comprising forming a gate electrode , a gate insulating layer , an active layer and source and drain electrodes of a thin film transistor on a base substrate , wherein the active layer is prepared by using a metal oxide thin film , and an electrochemical oxidation process is performed on the metal oxide thin film during preparing the active layer , and the metal oxide thin film after the electrochemical oxidation process is patterned to form the active layer of the thin film transistor, performing the electrochemical oxidation process on the metal oxide thin film includes: taking the metal oxide thin film as an anode, placing a cathode and the base substrate where the metal oxide thin film has been formed in an electrolyte solution , and then energizing to perform the electrochemical oxidation process, characterized that, after the electrochemical oxidation process, patterning the metal oxide thin film to form the active layer of the thin film transistor comprises: completely removing by etching a part of the metal oxide thin film not being immersed in the electrolyte solution, and partially removing by etching a part of the metal oxide thin film being immersed in the electrolyte solution.
An initially solid-colored coating composition, comprising: a first tinting colorant, a thickener; a surfactant or a surfactant blend having a hydrophilic/lipophilic balance (HLB) value less than 9; and, a binder, each of which is dispersed or dissolved in a liquid, wherein, after a film of the initially solid-colored coating composition is applied to a substrate surface and begins to dry, the first tinting colorant becomes incompatible with the coating composition such that a portion of the first tinting colorant migrates to an exterior facing surface of the film while the coating composition is still in a liquid state so as to provide a final coating once the composition dries from the liquid state, the final coating having two differently colored areas which exhibit a color change value (ΔE) relative to one another of greater than 0.25; wherein the first tinting colorant is a hydrophobic tinting colorant and the liquid comprises an aqueous solution, wherein the surfactant is present in an amount of 0.01 wt.% to 5 wt.%, and wherein said first tinting colorant is configured for separating, concentrating, flocculating and/or floating from a still-wet, applied coating composition to the surface of the still-forming coating because of its incompatibility with other of said components of said composition.
A method for synthesising a molecular magnetic material, characterised in that the method comprises the steps of: - producing a mixture comprising components: - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W(CN) 6 (NN)] - and as the diamagnetic reactant: [W(CN) 6 (NN)] -2 , where NN is a bidentate NN-donor substituent, - carrying out a reaction of the components of the mixture to form coordination bonds between the cation and cyanide nitrogen atoms derived from the donor of cyanide ligands, to obtain a polycyanide complex being the molecular magnetic material. - producing a mixture comprising components: - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W(CN) 6 (NN)] - and as the diamagnetic reactant: [W(CN) 6 (NN)] -2 , where NN is a bidentate NN-donor substituent, - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W(CN) 6 (NN)] - and as the diamagnetic reactant: [W(CN) 6 (NN)] -2 , where NN is a bidentate NN-donor substituent, - carrying out a reaction of the components of the mixture to form coordination bonds between the cation and cyanide nitrogen atoms derived from the donor of cyanide ligands, to obtain a polycyanide complex being the molecular magnetic material.