mhurhangee/patent-ind-claim-en huggingface dataset:
A laminated diffraction optical element comprising: a substrate ; and a resin layer provided on the substrate and including an optically effective portion and an optically non-effective outer portion adjacent to the optically effective portion , wherein the optically non-effective outer portion in the resin layer includes at least a continuous first shape such that a layer thickness decreases when extending toward an outer periphery of the substrate , and a second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate , and the optically non-effective outer portion in the resin layer includes repetitive pairs of the continuous first shape such that the layer thickness decreases when extending toward the outer periphery of the substrate and the second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate , wherein the number of the pairs is within a range of 2 to 10, wherein an angle (Θ) formed between a straight line connecting both ends of the continuous first shape such that the layer thickness decreases and a tangent to a surface of the substrate at a point opposite to the end closer to the surface of the substrate is within a range of 20 to 60 degrees ; and the laminated diffraction optical element is produced by the production method of any of claims 5 and 6. a substrate ; and a resin layer provided on the substrate and including an optically effective portion and an optically non-effective outer portion adjacent to the optically effective portion , wherein the optically non-effective outer portion in the resin layer includes at least a continuous first shape such that a layer thickness decreases when extending toward an outer periphery of the substrate , and a second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate , and the optically non-effective outer portion in the resin layer includes repetitive pairs of the continuous first shape such that the layer thickness decreases when extending toward the outer periphery of the substrate and the second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate , wherein the number of the pairs is within a range of 2 to 10, wherein an angle (Θ) formed between a straight line connecting both ends of the continuous first shape such that the layer thickness decreases and a tangent to a surface of the substrate at a point opposite to the end closer to the surface of the substrate is within a range of 20 to 60 degrees ; and the laminated diffraction optical element is produced by the production method of any of claims 5 and 6.
A silencer for an exhaust gas system of a motor vehicle, comprising an external housing , which has at least one inlet opening and at least one outlet opening for exhaust gas , a silencer chamber and a filter monolith through which exhaust gas flows, wherein the filter monolith is circumferentially surrounded by the silencer chamber , wherein the silencer chamber is divided into silencer subchambers by at least one perforated radial partition , characterized in that the external housing of the silencer has an outer casing , which is composed of several individual segments attached to one another, wherein the individual segments are allocated to the silencer subchambers .
An apparatus containing a dialysis solution and a medical connector for connecting the apparatus to a line leading to the patient, characterized in that the apparatus has a flexible inner bag for receiving the dialysis solution that is arranged in a rigid outer packaging that is preferably parallelepiped-shaped, wherein the inner bag has at least one extraction port for the extraction of dialysis solution that comprises the medical connector and wherein the outer packaging has a suspension apparatus; and in that the inner bag is arranged in the outer packaging such that the extraction port is located at the corner or side edge of the outer packaging that is opposite the outer packaging. the apparatus has a flexible inner bag for receiving the dialysis solution that is arranged in a rigid outer packaging that is preferably parallelepiped-shaped, wherein the inner bag has at least one extraction port for the extraction of dialysis solution that comprises the medical connector and wherein the outer packaging has a suspension apparatus; and in that the inner bag is arranged in the outer packaging such that the extraction port is located at the corner or side edge of the outer packaging that is opposite the outer packaging.
Method to produce a wax of natural origin for cosmetic use, wherein said wax consists of 70-90% by weight of Helianthus annuus sunflower seed wax and 10-30% by weight of hydrogenated castor oil, wherein the Helianthus annuus sunflower seed wax and the hydrogenated castor oil form a homogeneous phase, said method comprising the following steps: a) heating under stirring the Helianthus annuus sunflower seed wax up at a temperature ranging from 80 °C to 100 °C, until complete melting of the wax; b) heating under stirring the hydrogenated castor oil up at a temperature ranging from 90 °C to 110 °C, until complete melting of the wax; c) mixing under stirring the molten waxes obtained from steps a) and b), keeping a temperature from 95 °C to 125 °C, until complete homogenization of the solution; d) cooling down the solution obtained in step c) at a temperature ranging from 5 °C and 15 °C for a maximum time of 15 minutes, preferably up to 5 minutes, in order to obtain a homogeneous phase consisting of Helianthus annuus sunflower seed wax matrix wherein the hydrogenated castor oil is dispersed, wherein the cooling takes place by dropping on a metallic surface, and the thus obtained homogeneous phase is in the form of pearls or flakes; e) keeping at room temperature the homogeneous phase obtained in step d), until a wax is obtained. a) heating under stirring the Helianthus annuus sunflower seed wax up at a temperature ranging from 80 °C to 100 °C, until complete melting of the wax; b) heating under stirring the hydrogenated castor oil up at a temperature ranging from 90 °C to 110 °C, until complete melting of the wax; c) mixing under stirring the molten waxes obtained from steps a) and b), keeping a temperature from 95 °C to 125 °C, until complete homogenization of the solution; d) cooling down the solution obtained in step c) at a temperature ranging from 5 °C and 15 °C for a maximum time of 15 minutes, preferably up to 5 minutes, in order to obtain a homogeneous phase consisting of Helianthus annuus sunflower seed wax matrix wherein the hydrogenated castor oil is dispersed, wherein the cooling takes place by dropping on a metallic surface, and the thus obtained homogeneous phase is in the form of pearls or flakes; e) keeping at room temperature the homogeneous phase obtained in step d), until a wax is obtained.
Device for supporting a load of a gangway structure between two cars, the device having a beam , on which the load of the gangway structure can be supported, and two sliding means which are supported by the beam ; each of the sliding means having at least one connecting structure to be connected to one of the cars; the beam and the sliding means are adapted such that the sliding means are compulsory coupled to the beam to move in opposite directions at least substantially the same distance relative to the beam in a translational direction along the longitudinal axis of the beam , characterized in that the coupling element comprises a pinion means mounted in the beam ; wherein the sliding means are connected to rack means or the sliding means have a section formed as rack means ; the rack means being in engagement with the pinion means .
Horse hoof shoe for fastening to a horse hoof (H) by means of an adhesive (K) comprising a horseshoe-shaped base part , which is formed at least for the most part from an elastomer, an outer bearing wall extending away from the base part for laterally bearing against an outer side (A) of the horse hoof (H) and with two fastening devices each provided at an end of the horse hoof shoe and intended for securing in the region of bars (E) of the horse hoof (H), characterised in that the two fastening devices comprise at the respective end a receiving wall which extends around in a U shape and which delimits an heel angle receptacle . comprising a horseshoe-shaped base part , which is formed at least for the most part from an elastomer, an outer bearing wall extending away from the base part for laterally bearing against an outer side (A) of the horse hoof (H) and with two fastening devices each provided at an end of the horse hoof shoe and intended for securing in the region of bars (E) of the horse hoof (H), characterised in that the two fastening devices comprise at the respective end a receiving wall which extends around in a U shape and which delimits an heel angle receptacle .
Radial/axial ring rolling mill for rolling a ring, having an axial rolling device and a radial rolling device , wherein the radial rolling de-vice has a main roller and a roller mandrel , between which the ring can be shaped, wherein the roller mandrel is retained in the upper region thereof on a mandrel bearing head which is supported in a first linear adjustment device so as to be able to be horizontally adjusted in such a manner that the roller mandrel can be moved perpendicularly to the longitudinal extent thereof in the direction towards the main roller and in the opposite direction thereto, characterized in that the first linear adjustment device together with the mandrel bearing head and the roller mandrel can be adjusted as a unit by means of a second linear adjustment device in a vertical manner so that the roller mandrel can be pulled out of the inner space of the ring and introduced therein.
Device for filling a tank or tanks with pressurized gas, notably with hydrogen, comprising a circuit comprising a plurality of upstream ends which are respectively connected to distinct sources of pressurized gas, the circuit further comprising at least one compressor , at least one buffer storage device , a set of operated valves and at least one downstream end intended to be connected to the tank or tanks to be filled, the device further comprising an electronic storage and processing control member connected to the set of valves and to the compressor(s) , the control member being configured to command the valves and/or the compressor in order to ensure the transfer of gas into the tank from at least one source and/or from at least one buffer storage device by equalizing pressures and/or using the compressor , the device comprising a set of sensors for measuring the pressure within the sources and the buffer storage devices , the control member comprising a member for receiving or generating a signal representative of the demand for filling from among at least two distinct filling-demand levels: a relatively high demand and a relatively low demand, the control member being configured to ensure that gas is transferred into the tank using at least a first mode of transfer employing the source at the highest pressure and a second mode of transfer employing a source at a pressure lower than this highest pressure, the control member being configured to fill the at least one tank using the first mode of transfer in response to the receipt or generation of a signal indicative of a relatively high demand for filling, and to fill the at least one tank using the second mode of transfer in response to the receipt or generation of a signal indicative of a relatively low demand for filling, characterized in that the member for receiving or generating a signal indicative of the demand for filling comprises an electronic agenda and an electronic clock, the control member storing a predefined calendar defining periods of relatively high or relatively low demand according to the day and time which are defined by the agenda and the clock, and in that the predefined calendar is updated and, where appropriate, modified, according to actual filling-demand data regarding quantity and dates and times, which is to say that the calendar is, where appropriate, modified iteratively and predictively as a function of logged past data, and/or the predefined calendar is updated as a function of external data including: meteorological data (sunny/rainy), atmospheric temperature.
An opto-electronic device comprising: a first semiconductor layer of a first conductivity type; a second semiconductor layer of a second conductivity type provided directly on an upper surface of the first semiconductor layer , the second conductivity type being electrically opposite to the first conductivity type; a transparent matrix layer provided directly on an upper surface of the second semiconductor layer ; a plurality of quantum dots arranged to be in contact with the transparent matrix layer ; and a first electrode provided on a first side lateral to the transparent matrix layer and a second electrode provided on a second side lateral to the transparent matrix layer , laterally opposite to the first side, wherein the first electrode and the second electrode are electrically connected to the second semiconductor layer , wherein the transparent matrix layer comprises a material transparent to light in a wavelength band to be detected by the opto-electronic device , characterized in that the first electrode and the second electrode are disposed on the upper surface of the second semiconductor layer . a first semiconductor layer of a first conductivity type; a second semiconductor layer of a second conductivity type provided directly on an upper surface of the first semiconductor layer , the second conductivity type being electrically opposite to the first conductivity type; a transparent matrix layer provided directly on an upper surface of the second semiconductor layer ; a plurality of quantum dots arranged to be in contact with the transparent matrix layer ; and a first electrode provided on a first side lateral to the transparent matrix layer and a second electrode provided on a second side lateral to the transparent matrix layer , laterally opposite to the first side, wherein the first electrode and the second electrode are electrically connected to the second semiconductor layer , wherein the transparent matrix layer comprises a material transparent to light in a wavelength band to be detected by the opto-electronic device , characterized in that the first electrode and the second electrode are disposed on the upper surface of the second semiconductor layer .
A method for performing measurements of discovery signals, the method being performed by a terminal and comprising: receiving, information on discovery signals from a primary cell, wherein the information includes a discovery signal periodicity, an offset and a secondary cell identifier, wherein the offset indicates a start point of the discovery signal based on a first sub-frame of a frame; determining a timing to measure the discovery signals from a secondary cell based on the periodicity, the offset, and a system frame number, SFN, of the primary cell; and measuring the discovery signals transmitted from the secondary cell based on the determined timing, wherein the discovery signal is a signal based on a channel-state information reference signal, CSI-RS, and wherein the information further includes information on CSI-RS. receiving, information on discovery signals from a primary cell, wherein the information includes a discovery signal periodicity, an offset and a secondary cell identifier, wherein the offset indicates a start point of the discovery signal based on a first sub-frame of a frame; determining a timing to measure the discovery signals from a secondary cell based on the periodicity, the offset, and a system frame number, SFN, of the primary cell; and measuring the discovery signals transmitted from the secondary cell based on the determined timing, wherein the discovery signal is a signal based on a channel-state information reference signal, CSI-RS, and wherein the information further includes information on CSI-RS.
An add-on processing unit, comprising: a circuit card having a front end , a back end and a longitudinal edge , the longitudinal edge being connected between the front end and the back end ; a first processor (110 1 ) and a second processor (110 m ) disposed in series on a first surface of the circuit card along an airflow path , the airflow path proceeding from the back end to the front end while the second processor (110 m ) is located between the first processor (110 1 ) and the front end ; a first heat sink structure (120 1 ) disposed on the first processor (110 1 ); and a second heat sink structure disposed on the second processor (110 m ); wherein each of the first heat sink structure (120 1 ) and the second heat sink structure comprises at least a first impedance zone (124 1 ), and a second impedance zone (124 2 ) arranged in series substantially perpendicular to the airflow path , wherein the first impedance zone (124 1 ) has a first air impedance, and the second impedance zone (124 2 ) has a second air impedance less than the first air impedance; and wherein the first impedance zone (124 1 ) in the first heat sink structure does not overlap with the first impedance zone (124 1 ) in the second heat sink structure , relative to the airflow path , wherein the circuit card has a bus connector extending from the longitudinal edge , and the second impedance zone (124 2 ) of the first heat sink structure (120 1 ) is located between the first impedance zone (124 1 ) of the first heat sink structure (120 1 ) and the longitudinal edge . a circuit card having a front end , a back end and a longitudinal edge , the longitudinal edge being connected between the front end and the back end ; a first processor (110 1 ) and a second processor (110 m ) disposed in series on a first surface of the circuit card along an airflow path , the airflow path proceeding from the back end to the front end while the second processor (110 m ) is located between the first processor (110 1 ) and the front end ; a first heat sink structure (120 1 ) disposed on the first processor (110 1 ); and a second heat sink structure disposed on the second processor (110 m ); wherein each of the first heat sink structure (120 1 ) and the second heat sink structure comprises at least a first impedance zone (124 1 ), and a second impedance zone (124 2 ) arranged in series substantially perpendicular to the airflow path , wherein the first impedance zone (124 1 ) has a first air impedance, and the second impedance zone (124 2 ) has a second air impedance less than the first air impedance; and wherein the first impedance zone (124 1 ) in the first heat sink structure does not overlap with the first impedance zone (124 1 ) in the second heat sink structure , relative to the airflow path , wherein the circuit card has a bus connector extending from the longitudinal edge , and the second impedance zone (124 2 ) of the first heat sink structure (120 1 ) is located between the first impedance zone (124 1 ) of the first heat sink structure (120 1 ) and the longitudinal edge .
Composition comprising mixture of apolactoferrin and lactoferrin vehiculated into nanolipids, which are particles, composed of natural phospholipids organized in a double-layer, having a structure analogous to the cell membranes, with a diameter of less than 250 nm, for use in the treatment of iron accumulation diseases.
Method for the removal of inorganic components of the ash of biomass of agro/forest/urban origin and of low-quality coal fuels before thermochemical conversion of the above mentioned raw materials, the method comprises: ✔ heating of the raw material at a temperature range between 200 °C and 300 °C, for 5 min to 2 h, whereby heating is effected with no oxygen and/or with an amount of oxygen that is less than the 30% of that one required for stoichiometric oxidation of these materials at the temperatures from 200 °C to 300 °C; and ✔ washing of the heated raw material with an aqueous solution of calcium acetate and/or magnesium acetate and/or aluminum acetate and/or ammonium acetate salt at concentrations from 0.5% up to 20% water weight basis, at a solid-to-liquid ratio from 33 g/L up to 600 g/L, at a temperature range between 13 °C and 95 °C, the treatment duration being from 5 min to 24 h. ✔ heating of the raw material at a temperature range between 200 °C and 300 °C, for 5 min to 2 h, whereby heating is effected with no oxygen and/or with an amount of oxygen that is less than the 30% of that one required for stoichiometric oxidation of these materials at the temperatures from 200 °C to 300 °C; and ✔ washing of the heated raw material with an aqueous solution of calcium acetate and/or magnesium acetate and/or aluminum acetate and/or ammonium acetate salt at concentrations from 0.5% up to 20% water weight basis, at a solid-to-liquid ratio from 33 g/L up to 600 g/L, at a temperature range between 13 °C and 95 °C, the treatment duration being from 5 min to 24 h.