mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a multi-layered propellant grain comprising the following steps: providing a first propellant formulation in form of a paste; providing a die configured to provide a structure having an outer shell and a hollow interior when material is extruded therethrough, the die comprising multiple passageways formed therethrough; extruding the first propellant formulation through said die using a ram press or a screw extruder, to produce a first propellant layer having an outer shell defining a hollow interior in the form of a passageway having open ends; providing a second propellant formulation in form of a liquid or gel, said second propellant formulation being of lower viscosity as compared with the first propellant formulation; injecting said second propellant formulation into said passageway defined by said first propellant layer to form a second propellant layer disposed in said passageway, wherein the said injecting of said second propellant formulation is performed at substantially the same time as the said extruding of said first propellant formulation and is performed through a pressure differential means including pumps, pressurized vessels, ram press or small screw extruders; and hardening said second propellant layer, wherein the first and second propellant layers have different rates of burning. providing a first propellant formulation in form of a paste; providing a die configured to provide a structure having an outer shell and a hollow interior when material is extruded therethrough, the die comprising multiple passageways formed therethrough; extruding the first propellant formulation through said die using a ram press or a screw extruder, to produce a first propellant layer having an outer shell defining a hollow interior in the form of a passageway having open ends; providing a second propellant formulation in form of a liquid or gel, said second propellant formulation being of lower viscosity as compared with the first propellant formulation; injecting said second propellant formulation into said passageway defined by said first propellant layer to form a second propellant layer disposed in said passageway, wherein the said injecting of said second propellant formulation is performed at substantially the same time as the said extruding of said first propellant formulation and is performed through a pressure differential means including pumps, pressurized vessels, ram press or small screw extruders; and hardening said second propellant layer,
An iridium complex compound denoted by a formula below; in the formula , Ir represents an iridium atom. n is 1 or 2. Ar is a structure represented by a formula below; in the formula , a dashed line represents a bond of Ar in the formula . m is an integer from m=n+1 to n +5; substituents R in the formulas and are each independently a hydrogen atom, D or F; substituents R 1 in the formulas and are each independently a hydrogen atom, D, F, Cl, Br, I, -N(R') 2 , - CN, -NO 2 , -OH, -COOR', -C(=O)R', -C(=O)NR', -P(=O)(R') 2 , - S(=O)R', -S(=O) 2 R', -OS(=O) 2 R', a linear, branched or cyclic alkyl group having 1 to 6 carbon atoms, a linear or branched alkoxy group having 1 to 4 carbon atoms, a linear, branched or cyclic alkylthio group having 1 to 4 carbon atoms, a linear or branched alkenyl group having 2 to 4 carbon atoms, a linear or branched alkynyl group having 2 to 4 carbon atoms, an aromatic group having 5 to 60 carbon atoms, a heteroaromatic group having 5 to 60 carbon atoms, a diarylamino group having 10 to 40 carbon atoms, an arylheteroarylamino group having 10 to 40 carbon atoms, or a diheteroarylamino group having 10 to 40 carbon atoms . These groups may be substituted with one or more R' other than a hydrogen atom; each R' is independently a hydrogen atom, D, F, -CN, a linear, branched or cyclic alkyl group having 1 to 6 carbon atoms, a linear or branched alkenyl group having 2 to 4 carbon atoms, or a linear or branched alkynyl group having 2 to 4 carbon atoms.
A luminaire comprising a light source in the form of at least one LED , as well as a reflector , wherein the reflector defines a light exit opening on a side opposite the light source through a circumferential edge of the reflector, wherein a planar light-permeable cover is arranged in the light exit opening, which has light-guiding and/or light-scattering microstructures distributed over the cover , and wherein the planar light-permeable cover extends inwards towards the light source with respect to a fictitious plane defined by the circumferential edge of the reflector , wherein the height (h) of the light-permeable cover with which it projects from the fictitious plane into the reflector , is less than 1 / 5 preferably 1⁄8 of the largest diameter in the fictitious plane, characterized in that the shape of the light-guiding cover is defined by the side walls of a pyramid or cone, wherein the base side of the pyramid or cone corresponds to the fictitious plane. wherein a planar light-permeable cover is arranged in the light exit opening, which has light-guiding and/or light-scattering microstructures distributed over the cover , and wherein the planar light-permeable cover extends inwards towards the light source with respect to a fictitious plane defined by the circumferential edge of the reflector , wherein the height (h) of the light-permeable cover with which it projects from the fictitious plane into the reflector , is less than 1 / 5 preferably 1⁄8 of the largest diameter in the fictitious plane, characterized in that the shape of the light-guiding cover is defined by the side walls of a pyramid or cone, wherein the base side of the pyramid or cone corresponds to the fictitious plane.
Filter device for filtering particles from an air stream, having an inlet channel through which the air to be purified flows, at least one filter element through which a flow can pass and which is held replaceably in a flow channel , and an outlet channel through which the purified air flows, wherein the filter device has an insertion chamber which can be closed by a door and from which a filter element can be fed to the flow channel , and an output chamber which can be closed by a closure element and into which a filter element can be fed from the flow channel , wherein the closure element of the output chamber is locked in the closed position via a locking mechanism when the door on the insertion chamber is open and the output chamber and the insertion chamber are connected to the same flow channel , characterized in that the closure element of the output chamber can be opened only when the door of the insertion chamber is closed.
A system, comprising: a system controller configured to generate and wirelessly broadcast a plurality of individually addressed variable frequency clocks; and a plurality of propulsion platforms , each propulsion platform having an address corresponding to at least one of the individually addressed variable frequency clocks; wherein each propulsion platform supports a corresponding payload platform and is configured to move, along a predefined path, in synchronism with its corresponding one of the plurality of individually addressed variable frequency clocks. a system controller configured to generate and wirelessly broadcast a plurality of individually addressed variable frequency clocks; and a plurality of propulsion platforms , each propulsion platform having an address corresponding to at least one of the individually addressed variable frequency clocks; wherein each propulsion platform supports a corresponding payload platform and is configured to move, along a predefined path, in synchronism with its corresponding one of the plurality of individually addressed variable frequency clocks.
Cooking system, in particular induction cooking system, with at least one set-down plate (12a-d), with at least one display unit (14a-d), which has at least one light source (16a-d) and which is arranged below the set-down plate (12a-d), and with at least one filter unit (18a-d), which has at least one film (20a-d) and at least one filter element (22a-d), which filter element is arranged on at least one subarea (24a-d) of the film (20a-d), and which filter element is arranged between the set-down plate (12a-d) and the display unit (14a-d), characterised in that the filter element (22a-d) is fastened to the display unit (14a-d) by means of at least one adhesive connection and the film (20a-d) is embodied as a self-adhesive film.
Process for the preparation of an aroma mixture containing one or more unsaturated dienal(s), consisting of or comprising the steps of a) air oxidation of one or more educt(s) comprising or consisting of one or more substance(s) selected from the group consisting of punicic acid, punicic acid ester, elaeostearic acid, elaeostearic acid ester, linoleic acid, and linoleic acid ester, b) optionally decomposing a part or all or substantially all of the peroxides in the mixture obtained in step a), c) purification or concentration of the unsaturated dienal(s) formed in step a) from or in the mixture obtained in step a) and/or b), if present, wherein the air oxidation in step a) is carried out at a temperature of from 70 to 200°C, preferably from 80 to 200°C, preferably from 90 to 170°C, more preferably from 100 to 130°C. a) air oxidation of one or more educt(s) comprising or consisting of one or more substance(s) selected from the group consisting of punicic acid, punicic acid ester, elaeostearic acid, elaeostearic acid ester, linoleic acid, and linoleic acid ester, b) optionally decomposing a part or all or substantially all of the peroxides in the mixture obtained in step a), c) purification or concentration of the unsaturated dienal(s) formed in step a) from or in the mixture obtained in step a) and/or b), if present,
A work table comprising at least one worktop , at least one operating unit, at least one supporting group of said at least one operating unit fixed to said worktop , said group being movable between two end positions so as to allow the regulation in height of at least one operating unit with respect to the worktop, wherein said supporting group comprises a telescopic column fixed to said worktop , and suitable for supporting, at its top or substantially close to its top, said at least one operating unit; said telescopic column comprising a body suitable for being fixed to the worktop of the table , characterized in that the body of said telescopic column being provided with an element for fixing said body to the lower surface of said worktop of the table , said fixing element consists of a peripheral flange , the surface of said flange being fixed to the lower surface of the worktop of the table where the supporting group does not rest on the ground. wherein said supporting group comprises a telescopic column fixed to said worktop , and suitable for supporting, at its top or substantially close to its top, said at least one operating unit; said telescopic column comprising a body suitable for being fixed to the worktop of the table , characterized in that the body of said telescopic column being provided with an element for fixing said body to the lower surface of said worktop of the table , said fixing element consists of a peripheral flange , the surface of said flange being fixed to the lower surface of the worktop of the table where the supporting group does not rest on the ground.
A composition comprising cysteamine bitartrate and cystamine, or a pharmaceutically acceptable salt thereof, and one or more enteric coating materials that provide delivery of the cysteamine bitartrate and cystamine, or pharmaceutically acceptable salt thereof, to a region of the small intestine in which the pH is between 4.5 and 6.5.
An arc start control method for forward and reverse feed arc welding in which forward and reverse feed control of alternately switching a feed speed (Fw) of a welding wire between a forward feed period and a reverse feed period is performed to generate a short circuit period and an arc period to perform welding, characterized in that , at arc start, a pulse period (Tp) during which a pulse current is energized for a plurality of number of times is provided, and thereafter the forward and reverse feed control is started from the forward feed period of the welding wire .
Conveyor module (10; 80; 110; 210), comprising: a module body (12; 212), comprising: a pair of first link ends (14; 114; 214) extending in a first direction of travel, each first link end (14; 114; 214) having a first transverse opening (15; 115; 215) therethrough and at least one of the first link ends (14; 114; 214) has a first mating portion (30; 130); a second link end (16; 116; 216) extending in a second direction of travel opposite the first direction, the second link end (16; 116; 216) having a second transverse opening (17; 117; 217) therethrough; a pin (20; 120; 220) configured to be received in the first transverse openings (15; 115; 215) of the module body (12; 212), the pin (20; 120; 220) having a shaft (22; 222) and a lever (28; 128) affixed at a first end (24; 224) of the shaft (22; 222), the lever (28; 128) having a second mating portion (32; 132) configured to be rotatably coupled with the first mating portion (30; 130) of the module body (12; 212) thereby preventing transverse movement of the shaft (22; 222), characterized in that the at least one of the first link ends (14; 114; 214) having a first mating portion (30; 130) has a first ramp with a changing elevation in a transverse direction and the lever (28; 128) has a second ramp configured to cooperate with the first ramp such that the pin (20; 120; 220) is translated in a transverse direction when the pin (20; 120; 220) is rotated. a module body (12; 212), comprising: a pair of first link ends (14; 114; 214) extending in a first direction of travel, each first link end (14; 114; 214) having a first transverse opening (15; 115; 215) therethrough and at least one of the first link ends (14; 114; 214) has a first mating portion (30; 130); a second link end (16; 116; 216) extending in a second direction of travel opposite the first direction, the second link end (16; 116; 216) having a second transverse opening (17; 117; 217) therethrough; a pair of first link ends (14; 114; 214) extending in a first direction of travel, each first link end (14; 114; 214) having a first transverse opening (15; 115; 215) therethrough and at least one of the first link ends (14; 114; 214) has a first mating portion (30; 130); a second link end (16; 116; 216) extending in a second direction of travel opposite the first direction, the second link end (16; 116; 216) having a second transverse opening (17; 117; 217) therethrough; a pin (20; 120; 220) configured to be received in the first transverse openings (15; 115; 215) of the module body (12; 212), the pin (20; 120; 220) having a shaft (22; 222) and a lever (28; 128) affixed at a first end (24; 224) of the shaft (22; 222), the lever (28; 128) having a second mating portion (32; 132) configured to be rotatably coupled with the first mating portion (30; 130) of the module body (12; 212) thereby preventing transverse movement of the shaft (22; 222),
A motorcycle helmet comprising: - a helmet body configured to partially or entirely cover a head of a wearer and having an opening in front of a face surface of the wearer; characterised by - a gaze corrector provided in a center of a frame forming the opening in the helmet body to divide the opening , having a rectangular columnar shape and enabling correction of a gaze of the wearer, - wherein the gaze corrector has a first color on a surface in front of the wearer, a second color and a third color on the surfaces placed to the right and to the left of the surface in front of the wearer, respectively, whereby these three colors are different from each other, so that the wearer can visually confirm the second/third color of the right/left side surface of the gaze corrector in the field of vision on the side opposite to the direction of a vehicle inclination during a right or left turn, and the gaze corrector divides a field of view of the wearer into a right field of view (A) and a left field of view (B). - a helmet body configured to partially or entirely cover a head of a wearer and having an opening in front of a face surface of the wearer; characterised by - a gaze corrector provided in a center of a frame forming the opening in the helmet body to divide the opening , having a rectangular columnar shape and enabling correction of a gaze of the wearer, - wherein the gaze corrector has a first color on a surface in front of the wearer, a second color and a third color on the surfaces placed to the right and to the left of the surface in front of the wearer, respectively, whereby these three colors are different from each other, so that the wearer can visually confirm the second/third color of the right/left side surface of the gaze corrector in the field of vision on the side opposite to the direction of a vehicle inclination during a right or left turn, and the gaze corrector divides a field of view of the wearer into a right field of view (A) and a left field of view (B).
A radiation detector , comprising: a plurality of photoelectric conversion devices arranged on a circuit substrate with a spacing formed between two adjacent photoelectric conversion devices , wirings in the circuit substrate formed directly below each of the photoelectric conversion devices , wherein each of the photoelectric conversion devices is also formed at least partially within an embedding layer and has a light receiving surface situated at least partially outside of the embedding layer; and a plurality of scintillator crystals , at least a first scintillator crystal of the plurality of scintillator crystals is covered and in direct contact with at least one light receiving surface at a one end, wherein a cross-section of the first scintillator crystal at the one end is smaller than a cross-section of the first scintillator crystal at a second end further from the light receiving surface; a space between the first scintillator crystal and a second scintillator crystal adjacent to the first scintillator crystal and wherein the first scintillator crystal contacts the second scintillator crystal of the plurality of scintillator crystals at the second end of the first scintillator crystal. a plurality of photoelectric conversion devices arranged on a circuit substrate with a spacing formed between two adjacent photoelectric conversion devices , wirings in the circuit substrate formed directly below each of the photoelectric conversion devices , wherein each of the photoelectric conversion devices is also formed at least partially within an embedding layer and has a light receiving surface situated at least partially outside of the embedding layer; and a plurality of scintillator crystals , at least a first scintillator crystal of the plurality of scintillator crystals is covered and in direct contact with at least one light receiving surface at a one end, wherein a cross-section of the first scintillator crystal at the one end is smaller than a cross-section of the first scintillator crystal at a second end further from the light receiving surface; a space between the first scintillator crystal and a second scintillator crystal adjacent to the first scintillator crystal and wherein the first scintillator crystal contacts the second scintillator crystal of the plurality of scintillator crystals at the second end of the first scintillator crystal.
A point to point encryption management computing system comprising at least one hardware processor operatively coupled to memory, the at least one hardware processor configured to: receive a first payload from a device , the first payload comprising data in a particular format and a device indicator comprising a unique identifier used for identifying the device; parse the first payload to extract the unique identifier ; retrieve a unique identifier table from memory ; compare the unique identifier to the unique identifier table to determine whether the unique identifier is included in the unique identifier table ; upon determining that the unique identifier is included in the unique identifier table, create a fingerprint associated with the unique identifier , wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; determining the section format of each of the one or more distinct sections; and creating a record of the section format of each of the one or more distinct sections; and compare a format of each subsequent payload received from the device to the fingerprint for the device to determine whether the device has been compromised . receive a first payload from a device , the first payload comprising data in a particular format and a device indicator comprising a unique identifier used for identifying the device; parse the first payload to extract the unique identifier ; retrieve a unique identifier table from memory ; compare the unique identifier to the unique identifier table to determine whether the unique identifier is included in the unique identifier table ; upon determining that the unique identifier is included in the unique identifier table, create a fingerprint associated with the unique identifier , wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; determining the section format of each of the one or more distinct sections; and creating a record of the section format of each of the one or more distinct sections; and parsing the particular format of the first payload into one or more distinct sections of the particular format; determining the section format of each of the one or more distinct sections; and creating a record of the section format of each of the one or more distinct sections; and compare a format of each subsequent payload received from the device to the fingerprint for the device to determine whether the device has been compromised .
Agent for precipitating suspended and dissolved substances in municipal waste water to be treated with a mixture comprising a. at least one flocculant for phosphate precipitation comprising Fe(II)X and/or Fe(III)X and/or AIX and/or polymeric compounds thereof, wherein X is either Cl and/or a sulfate and/or a nitrate b. at least one organic polymer as flocculating aid, comprising cationized starch and/or epichlorohydrin dimethylamine copolymer and/or polydiallyldimethylammonium chloride and/or polyamines and/or polyacrylamides and/or a mixture of these substances c. and for influencing the charge distribution and determining the charge of the flocculating aid at least one alkaline earth solution comprising Ca ions and/or Mg ions characterized in that the mixture comprises 30 - 80 wt% of a polymeric AIX solution comprising between 10 and 30 wt% Al 2 O 3 , or 30 - 80 wt% of an AlCl 3 solution as flocculant, 5 - 30 wt% of a 40 - 60% epichlorohydrin dimethylamine copolymer solution as flocculating aid, 1 - 15 wt% of a 20 - 40% MgCl 2 solution as alkaline earth solution, and 5 - 30 wt% of a 60 - 80% ethanol solution. a. at least one flocculant for phosphate precipitation comprising Fe(II)X and/or Fe(III)X and/or AIX and/or polymeric compounds thereof, wherein X is either Cl and/or a sulfate and/or a nitrate b. at least one organic polymer as flocculating aid, comprising cationized starch and/or epichlorohydrin dimethylamine copolymer and/or polydiallyldimethylammonium chloride and/or polyamines and/or polyacrylamides and/or a mixture of these substances c. and for influencing the charge distribution and determining the charge of the flocculating aid at least one alkaline earth solution comprising Ca ions and/or Mg ions