mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor mounting device for mounting a sensor to an object, comprising, - an object attachment member for attaching the sensor mounting device to the object, - a sensor attachment member for attaching the sensor to the sensor mounting device , - the object attachment member and the sensor attachment member are located at a distance from each other in a longitudinal direction (A) of the sensor mounting device , - wherein the object attachment member and the sensor attachment member are connected by at least two connecting elements , and - wherein the at least two connecting elements are adapted to adjust an inclination of the object attachment member relative to the sensor attachment member by adjusting the distance in the longitudinal direction (A) between portions of the object attachment member and the sensor attachment member , - the sensor mounting device further comprises an insert holder which is releasably attached to the sensor attachment member , and wherein the insert holder further comprises attachment means for attaching the sensor to the insert holder , characterized in that , the insert holder further comprises at least one damping element for the sensor being adapted for damping vibrations emanating from the object when in use, the damping element preferably being a rubber element. - an object attachment member for attaching the sensor mounting device to the object, - a sensor attachment member for attaching the sensor to the sensor mounting device , - the object attachment member and the sensor attachment member are located at a distance from each other in a longitudinal direction (A) of the sensor mounting device , - wherein the object attachment member and the sensor attachment member are connected by at least two connecting elements , and - wherein the at least two connecting elements are adapted to adjust an inclination of the object attachment member relative to the sensor attachment member by adjusting the distance in the longitudinal direction (A) between portions of the object attachment member and the sensor attachment member , - the sensor mounting device further comprises an insert holder which is releasably attached to the sensor attachment member , and wherein the insert holder further comprises attachment means for attaching the sensor to the insert holder , characterized in that ,
1-[[[4-(4-fluoro-2-methyl-1 H indol-5-yl)oxy-6-methoxyquinolin-7-yl]oxy]methyl]cyclopropyl amine or pharmaceutically acceptable salts thereof for use in the treatment of tumors at a daily dose of 8mg-16mg, wherein 1-[[[4-(4-fluoro-2-methyl-1 H -indol-5-yl)oxy-6-methoxyquinolin-7-yl]oxy]methyl]cyclopropyl amine or pharmaceutically acceptable salts thereof is orally administered continuously for 14 days and resting for 7 days, such an administration regimen with two-week continuous administration periods and one-week rest periods is repeated many times.
A process of forming an antimicrobial formulation for coating a medical device, the process comprising: milling at least one water permeable polymer with at least one antimicrobial agent in a liquid medium to form the antimicrobial formulation, wherein the at least one antimicrobial agent is not soluble in the formulation and is a silver-based antimicrobial agent, and wherein the liquid medium includes a primary C 1-6 primary alcohol; whereby milling of the formulation causes the at least one water permeable polymer to encapsulate at least a portion of the antimicrobial agent. milling at least one water permeable polymer with at least one antimicrobial agent in a liquid medium to form the antimicrobial formulation, wherein the at least one antimicrobial agent is not soluble in the formulation and is a silver-based antimicrobial agent, and wherein the liquid medium includes a primary C 1-6 primary alcohol; whereby milling of the formulation causes the at least one water permeable polymer to encapsulate at least a portion of the antimicrobial agent.
Combustion chamber having a combustion chamber wall in the form of a hollow cylinder that defines a cylinder axis , having a bottom , which is adjustable along the cylinder axis relative to the combustion chamber wall within the hollow cylinder, and having a seal , which bears against the bottom on one side and against the combustion chamber wall on the other side in a radial direction with respect to the cylinder axis , characterized in that the seal comprises a first sealing ring extending in a circumferential direction with respect to the cylinder axis and having a first interruption , and a second sealing ring extending in a circumferential direction with respect to the cylinder axis and having a second interruption , wherein the first interruption has a first angular position in the circumferential direction and the second interruption has a second angular position in the circumferential direction, wherein the first angular position and the second angular position enclose an angle (α) of greater than 0° and less than 180°.
A barrel contact system for an electrical connector, the contact system comprising: a barrel body having a cavity extending in an axial direction from a front face of the barrel body to an opposite rear face ; a wire section disposed within the barrel body, a portion of which extending outwardly from the rear face of the barrel body; and an electrically conductive contact having an attachment tab , the attachment tab disposed within the barrel body along the front face and abutting the wire section, the electrically conductive contact extending outwardly from the barrel body, wherein: the barrel body is crimpable; the wire section and attachment tab are crimped together within the barrel body and the barrel body further includes a shoulder formed adjacent the front face or the rear face of the barrel body for securing the barrel body in a contact-receiving cavity of the electrical connector. a barrel body having a cavity extending in an axial direction from a front face of the barrel body to an opposite rear face ; a wire section disposed within the barrel body, a portion of which extending outwardly from the rear face of the barrel body; and an electrically conductive contact having an attachment tab , the attachment tab disposed within the barrel body along the front face and abutting the wire section, the electrically conductive contact extending outwardly from the barrel body, wherein: the barrel body is crimpable; the wire section and attachment tab are crimped together within the barrel body and the barrel body further includes a shoulder formed adjacent the front face or the rear face of the barrel body for securing the barrel body in a contact-receiving cavity of the electrical connector. the barrel body is crimpable; the wire section and attachment tab are crimped together within the barrel body and the barrel body further includes a shoulder formed adjacent the front face or the rear face of the barrel body for securing the barrel body in a contact-receiving cavity of the electrical connector.
Method for preparing microbeads having a size of at least about 10μm comprising the following steps : a) preparing an alkaline aqueous solution comprising an amount of at least one polysaccharide and an amount of a cross linking agent; b) dispersing said alkaline aqueous solution into a hydrophobic phase in order to obtain w/o emulsion ; and c) transforming the w/o emulsion into beads by placing said w/o emulsion at a temperature from 4°C to 80°C for a sufficient time to allow the cross- linking of said amount of polysaccharide; wherein, said polysaccharide is selected from the group consisting of dextran, pullulan, agar, alginic acid, starch hyaluronic acid, inulin, heparin, fucoidan, chitosan and mixtures thereof; and step b) is performed in the absence of any surfactant. a) preparing an alkaline aqueous solution comprising an amount of at least one polysaccharide and an amount of a cross linking agent; b) dispersing said alkaline aqueous solution into a hydrophobic phase in order to obtain w/o emulsion ; and c) transforming the w/o emulsion into beads by placing said w/o emulsion at a temperature from 4°C to 80°C for a sufficient time to allow the cross- linking of said amount of polysaccharide;
Composition for the production of a coating reflecting solar radiation containing at least 4.5 to 45 wt.% of one or more binders selected from among alkyd resins, acrylic resins, epoxy resin esters, polyester resins and mixtures thereof, 1.5 to 31.5 wt.% of one ore more white pigments, 0.1 to 7 wt.% of hollow bodies, 2 to 35 wt.% of metallic pigments and 1 to 20 wt.% of corrosion inhibitors, with the corrosion inhibitors being zinc aluminium orthophosphate hydrate and/or zinc oxide.
A processed cheese that does not contain significant levels of emulsifying salts, the processed cheese comprising: a natural cheese or a mixture of natural cheeses providing from 5 weight percent to 30 weight percent dairy protein; 30 weight percent to 80 weight percent water; 0.5 weight percent or less of emulsifying salts so that the processed cheese does not contain significant levels of emulsifying salts; 0.1 weight percent to 10 weight percent of a non-crosslinked modified starch having a degree of substitution of less than 0.2 D.S. and containing amylopectin and less than 0.1 percent amylose, and which during cooking provides processing functionality of viscosity and water management and functionally disappears in the final product such that the processed cheese has a uniform distribution of amylopectin with less than 50 intact starch granules per 900 mm 2 of processed cheese as determined by Lugol's iodine stain at 20x magnification and no starch agglomerates, and less than 0.1 percent amylose in the processed cheese, the amylopectin and amylose from said modified starch being present in the processed cheese in a ratio of amylopectin to amylose of from 20:1 to 200:1 to provide no texture or flavor to the processed cheese. a natural cheese or a mixture of natural cheeses providing from 5 weight percent to 30 weight percent dairy protein; 30 weight percent to 80 weight percent water; 0.5 weight percent or less of emulsifying salts so that the processed cheese does not contain significant levels of emulsifying salts; 0.1 weight percent to 10 weight percent of a non-crosslinked modified starch having a degree of substitution of less than 0.2 D.S. and containing amylopectin and less than 0.1 percent amylose, and which during cooking provides processing functionality of viscosity and water management and functionally disappears in the final product such that the processed cheese has a uniform distribution of amylopectin with less than 50 intact starch granules per 900 mm 2 of processed cheese as determined by Lugol's iodine stain at 20x magnification and no starch agglomerates, and less than 0.1 percent amylose in the processed cheese, the amylopectin and amylose from said modified starch being present in the processed cheese in a ratio of amylopectin to amylose of from 20:1 to 200:1 to provide no texture or flavor to the processed cheese.
Nebulizer which is configured to nebulize a fluid , the nebulizer comprising: a replaceable container containing the fluid ; a nebulizer housing configured to receive the container , wherein the nebulizer housing comprises a housing part which can be detached from the nebulizer for opening the nebulizer housing and for replacing the container ; and an indicator device configured to count and/or indicate a number of uses performed or still possible with the container , wherein said uses comprise tensioning and/or dispensing processes during which the container moves inside the closed nebulizer housing in a stroke-like fashion, wherein the indicator device comprises an indicator housing ; wherein the indicator device is inseparably connected with the container , but separable from the nebulizer housing and housing part , so that it is replaceable together with the container ; and wherein the indicator device comprises a blocking part configured to prevent further use of the container in a locked state of the indicator device when a predetermined number of uses has been reached or exceeded with the container , wherein in the locked state, the blocking part blocks complete stroke-like moveability of the container in the closed nebulizer housing , and wherein the blocking part is integrated into the indicator housing and/or forms part of the indicator housing or is arranged inside the indicator housing . a replaceable container containing the fluid ; a nebulizer housing configured to receive the container , wherein the nebulizer housing comprises a housing part which can be detached from the nebulizer for opening the nebulizer housing and for replacing the container ; and an indicator device configured to count and/or indicate a number of uses performed or still possible with the container , wherein said uses comprise tensioning and/or dispensing processes during which the container moves inside the closed nebulizer housing in a stroke-like fashion, wherein the indicator device comprises an indicator housing ; wherein the indicator device is inseparably connected with the container , but separable from the nebulizer housing and housing part , so that it is replaceable together with the container ; and wherein the indicator device comprises a blocking part configured to prevent further use of the container in a locked state of the indicator device when a predetermined number of uses has been reached or exceeded with the container , wherein in the locked state, the blocking part blocks complete stroke-like moveability of the container in the closed nebulizer housing , and wherein the blocking part is integrated into the indicator housing and/or forms part of the indicator housing or is arranged inside the indicator housing .
A spectrometer assembly comprising: a holder for holding a sample for emitting signal light when excited with excitation light; an excitation light source and an excitation filter coupled to the holder, for providing the excitation light; a first signal filter coupled to the holder, for transmitting a first portion of the signal light at a first signal wavelength, while blocking the excitation light; and a first photodetector coupled to the first signal filter, for providing a first electrical signal upon illumination with the first portion of the signal light transmitted through the first signal filter, characterised in that the first signal filter includes continuous metal and dielectric layers deposited directly onto the first photodetector and stacked in alternation so as to induce optical transmission therethrough, whilst being absent a pattern of features exhibiting a plasmon resonance effect at the first signal wavelength, and wherein the first signal filter includes an additional stack of dielectric layers on the continuous metal and dielectric layers to increase the attenuation of the first signal wavelength, and wherein an angular sensitivity of the first signal transmission wavelength is less for the first signal filter compared to a signal filter not including such metal layers. a holder for holding a sample for emitting signal light when excited with excitation light; an excitation light source and an excitation filter coupled to the holder, for providing the excitation light; a first signal filter coupled to the holder, for transmitting a first portion of the signal light at a first signal wavelength, while blocking the excitation light; and a first photodetector coupled to the first signal filter, for providing a first electrical signal upon illumination with the first portion of the signal light transmitted through the first signal filter, characterised in that the first signal filter includes continuous metal and dielectric layers deposited directly onto the first photodetector and stacked in alternation so as to induce optical transmission therethrough, whilst being absent a pattern of features exhibiting a plasmon resonance effect at the first signal wavelength, and wherein the first signal filter includes an additional stack of dielectric layers on the continuous metal and dielectric layers to increase the attenuation of the first signal wavelength, and wherein an angular sensitivity of the first signal transmission wavelength is less for the first signal filter compared to a signal filter not including such metal layers.
A method for producing a dental molded part such as an inlay, onlay, crown, or bridge, comprising the method steps of: - Producing a molten mass with a composition (in % by weight): SiO2 46.0-72.0 Li2O 10.0-25.0 ZrO2 6.5-14.0 P2O5 1.0-10.0 Al2O3 0.1-8.0 K2O 0.1-5.0 CeO2 0.1-4.0 B2O3 0.0-4.0 Na2O 0.0-4.0 Tb4O7 0.0-2.5 as well as 0.0 to 4.0 of at least one additive, - Producing a glass frit by atomizing the molten mass and quenching in a medium, - If applicable, generating glass powder particles from the glass frit with a grain size distribution d 90 < 80 μm, - Final crystallization of lithium silicate crystals with a volume fraction of between 10 % and 90 % by a first thermal treatment from either the glass frit or the glass powder particles in a first temperature range at a temperature T 1 with 500 °C ≤ T 1 ≤ 750 °C for a duration t 1 with 5 min ≤ t 1 ≤ 120 min, - Whereby at a time when the glass frit has been subjected to a thermal treatment, one produces glass-ceramic particles with a grain size distribution d 90 ≤ 80 μm from the heat-treated glass frit, - Pressing the glass-ceramic powder particles to form a blank with a density between 30 % and 60 % of the theoretical density of the material of the blank of around 2,6 g/cm 3 , - Machining the blank by milling to produce a pre-form part that corresponds to the dental molded part under consideration of the shrinkage characteristics of the blank, and - Sintering the preformed part to completion at a temperature T 2 with 800 °C ≤ T 2 ≤ 1050 °C for a time period t 2 with 5 min ≤ t 2 ≤ 60 min. - Producing a molten mass with a composition (in % by weight): SiO2 46.0-72.0 Li2O 10.0-25.0 ZrO2 6.5-14.0 P2O5 1.0-10.0 Al2O3 0.1-8.0 K2O 0.1-5.0 CeO2 0.1-4.0 B2O3 0.0-4.0 Na2O 0.0-4.0 Tb4O7 0.0-2.5 as well as 0.0 to 4.0 of at least one additive, - Producing a glass frit by atomizing the molten mass and quenching in a medium, - If applicable, generating glass powder particles from the glass frit with a grain size distribution d 90 < 80 μm, - Final crystallization of lithium silicate crystals with a volume fraction of between 10 % and 90 % by a first thermal treatment from either the glass frit or the glass powder particles in a first temperature range at a temperature T 1 with 500 °C ≤ T 1 ≤ 750 °C for a duration t 1 with 5 min ≤ t 1 ≤ 120 min, - Whereby at a time when the glass frit has been subjected to a thermal treatment, one produces glass-ceramic particles with a grain size distribution d 90 ≤ 80 μm from the heat-treated glass frit, - Pressing the glass-ceramic powder particles to form a blank with a density between 30 % and 60 % of the theoretical density of the material of the blank of around 2,6 g/cm 3 , - Machining the blank by milling to produce a pre-form part that corresponds to the dental molded part under consideration of the shrinkage characteristics of the blank, and - Sintering the preformed part to completion at a temperature T 2 with 800 °C ≤ T 2 ≤ 1050 °C for a time period t 2 with 5 min ≤ t 2 ≤ 60 min.
An electric or hybrid motor vehicle consisting of a pair of wrists and a rear cradle designed to support an electric propulsion group , the rear cradle consists of a central area extending according to the transverse direction of the vehicle and extending at each end by two arms , respectively a front arm and a rear arm , the rear cradle is attached to the longeronets by its front and rear arms ; the vehicle is characterized by the fact that each of the rear arms of the rear cradle is fastened on the ringpins by means of a two-part attachment device configured to separate under the action of a tensile force greater than a predetermined threshold; preferably, the said traction force is oriented vertically.
A treatment device capable of cooperating with an elongate element provided with a plurality of electronic chips staggered along the length of said elongate element , said treatment device comprising a housing comprising: - an input orifice for the elongate element , - an output orifice for the elongate element , - a treatment cavity arranged between the input orifice and the output orifice and provided with a treatment probe for electronic chips, and the treatment device comprising an isolation system configured to isolate an electronic chip to be treated and being in the cavity from other electronic chips of the plurality of electronic chips arranged outside the cavity , this isolation system comprising short-circuiting elements configured to come into physical contact with the elongate element on either side of a chip to be treated placed in the cavity . - an input orifice for the elongate element , - an output orifice for the elongate element , - a treatment cavity arranged between the input orifice and the output orifice and provided with a treatment probe for electronic chips,
A paste for use in metallization of a solar cell, the paste comprising: an organic vehicle including polyvinylpyrrolidone, and a mixture of copper-containing particles, metal-oxide-containing nanoparticles, and secondary oxide particles different from the metal-oxide-containing nanoparticles in the organic vehicle, wherein the secondary oxide particles include particles of a metal oxide, and a metal of the metal oxide is capable of reducing at least some of the metal-oxide-containing nanoparticles to metal when the paste is heated to a temperature at which the organic vehicle decomposes, wherein the nanoparticles are each a discrete particle where all three dimensions are equal to or less than 100 nm. an organic vehicle including polyvinylpyrrolidone, and a mixture of copper-containing particles, metal-oxide-containing nanoparticles, and secondary oxide particles different from the metal-oxide-containing nanoparticles in the organic vehicle, wherein the secondary oxide particles include particles of a metal oxide, and a metal of the metal oxide is capable of reducing at least some of the metal-oxide-containing nanoparticles to metal when the paste is heated to a temperature at which the organic vehicle decomposes, wherein the nanoparticles are each a discrete particle where all three dimensions are equal to or less than 100 nm.
A metal composition comprising, on a dry weight basis, • at least 0.08%wt and at most 6.90%wt of lead (Pb), • at least 0.50%wt and at most 3.80%wt of antimony (Sb), • at least 92.00%wt and at most 98.90%wt of tin (Sn), • at least 96.00%wt of tin, lead and antimony together, • at least 1 ppm wt and at most 500 ppm wt of copper (Cu), • at least 10 ppm wt and at most 0.0500%wt of silver (Ag), • at most 0.40%wt of arsenic (As), • at most 0.1% of the total of chromium (Cr), manganese (Mn), vanadium (V), titanium (Ti) and tungsten (W), • at most 0.1% of aluminium (Al), • at most 0.1% of nickel (Ni), • at most 0.1% of iron (Fe), and • at most 0.1% of zinc (Zn). • at least 0.08%wt and at most 6.90%wt of lead (Pb), • at least 0.50%wt and at most 3.80%wt of antimony (Sb), • at least 92.00%wt and at most 98.90%wt of tin (Sn), • at least 96.00%wt of tin, lead and antimony together, • at least 1 ppm wt and at most 500 ppm wt of copper (Cu), • at least 10 ppm wt and at most 0.0500%wt of silver (Ag), • at most 0.40%wt of arsenic (As), • at most 0.1% of the total of chromium (Cr), manganese (Mn), vanadium (V), titanium (Ti) and tungsten (W), • at most 0.1% of aluminium (Al), • at most 0.1% of nickel (Ni), • at most 0.1% of iron (Fe), and • at most 0.1% of zinc (Zn).