mhurhangee/patent-ind-claim-en huggingface dataset:
A method for assembling a power conversion device , comprising: providing an electronic component ; covering the electronic component with a cover , and disposing a second connecting portion of the electronic component on the cover ; mounting the electronic component on a heat-dissipating base ; and electrically connecting a printed wiring board with the electronic component mounted on the heat-dissipating base , characterized in that the cover has an insulating material, and the electrically connecting comprises: providing a first fixing member corresponding to a second fixing member embedded in the cover ; and passing the first fixing member through a first through hole of a first connecting portion of the printed wiring board and a second through hole of the second connecting portion and fixing the first fixing member to the second fixing member , such that the second connecting portion is electrically connected to the first connecting portion . providing an electronic component ; covering the electronic component with a cover , and disposing a second connecting portion of the electronic component on the cover ; mounting the electronic component on a heat-dissipating base ; and electrically connecting a printed wiring board with the electronic component mounted on the heat-dissipating base , the cover has an insulating material, and the electrically connecting comprises: providing a first fixing member corresponding to a second fixing member embedded in the cover ; and passing the first fixing member through a first through hole of a first connecting portion of the printed wiring board and a second through hole of the second connecting portion and fixing the first fixing member to the second fixing member , such that the second connecting portion is electrically connected to the first connecting portion . providing a first fixing member corresponding to a second fixing member embedded in the cover ; and passing the first fixing member through a first through hole of a first connecting portion of the printed wiring board and a second through hole of the second connecting portion and fixing the first fixing member to the second fixing member , such that the second connecting portion is electrically connected to the first connecting portion .
A method of curing a cementitious material that is cured by reaction with CO 2 and does not cure by reaction with water alone, comprising the steps of: providing a quantity of the cementitious material that is cured by reaction with CO 2 and does not cure by reaction with water alone in uncured form, wherein the quantity of a cementitious material comprises ground Wollastonite or non-Wollastonite calcium silicate, or magnesium silicate; and exposing the cementitious material to a curing agent comprising a chemical reagent that is synthesized from CO 2 for a time sufficient to form a plurality of bonding elements by chemical transformation of the cementitious material and cure the cementitious material, wherein the reagent chemical that is synthesized from CO 2 is oxalic acid or tartaric acid . providing a quantity of the cementitious material that is cured by reaction with CO 2 and does not cure by reaction with water alone in uncured form, wherein the quantity of a cementitious material comprises ground Wollastonite or non-Wollastonite calcium silicate, or magnesium silicate; and exposing the cementitious material to a curing agent comprising a chemical reagent that is synthesized from CO 2 for a time sufficient to form a plurality of bonding elements by chemical transformation of the cementitious material and cure the cementitious material, wherein the reagent chemical that is synthesized from CO 2 is oxalic acid or tartaric acid .
An electric oven comprising an oven-body and a vault or dome which externally enclose an oven cavity or cooking cavity , a flue for fume exhaust, a mouth for accessing the oven cavity , closeable by way of a door , a dish supporting plane placed outside the mouth , a lower heating plate , and an upper heating plate which accommodate electric resistors, the oven being characterized in that it comprises a modular and removable cooktop made from a refractory material formed of individual modules arranged adjacent to and coupled with each other, and means for controlling and distributing heat flow within the oven comprising at least one shield or plate-like element transversally arranged in the cooking cavity in correspondence with the upper heating plate opposed to the cooktop and hinged to and pivoting with respect to the upper heating plate .
A footwear flat pattern comprising: a first article of footwear pattern comprising: a first upper portion having a toe end and an opposite heel end , a lateral side , a first medial side portion and a second medial side portion , wherein the first medial side portion extends from the toe end and the second medial side portion extends from the heel end; a second article of footwear pattern comprising: a second upper portion having a toe end and an opposite heel end, a lateral side, a first medial side portion and a second medial side portion, wherein the first medial side portion extends from the toe end and the second medial side portion extends from the heel end; a surplus portion , the surplus portion extending between the first upper portion and the second upper portion, wherein the first article of footwear pattern, the second article of footwear pattern and the surplus portion are integrally coextensive; characterised in that it further comprises an overlay , wherein the overlay is secured to at least the first upper portion.
A composition comprising two different thienothiophene compounds, wherein the two different thienothiophene compounds are selected from compounds represented by formula and/or by formula : wherein in formulas and , either one of R 1 and R 2 represents an alkyl group, an aromatic hydrocarbon group having an alkyl group or a heterocyclic group having an alkyl group, and the other represents a hydrogen atom, an aromatic hydrocarbon group, a heterocyclic group, or a substitution represented by formula : wherein in formula , R 3 represents an aromatic hydrocarbon group or a heterocyclic group.
An endometrial vapor ablation system, comprising: a vapor generator comprising a first pressure sensor; a uterine ablation device coupled to the vapor generator, the uterine ablation device comprising: a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon ; a control system coupled to the uterine ablation device and the vapor generator, the control system being configured to automatically perform a pre-procedural sterilization of the vapor generator and the uterine ablation device, the control system being configured to pressurize the tip cover , with the at least one balloon inflated, and compare a sensed pressure of the first pressure sensor to a sensed pressure of the second pressure sensor to test for leaks in the at least one balloon , and, after removal of the tip cover , the control system being configured to monitor the application of vapor energy, monitor temperature readings at identified locations on the uterine ablation device, and implement shutdown of the vapor generator following vapor delivery. a vapor generator comprising a first pressure sensor; a uterine ablation device coupled to the vapor generator, the uterine ablation device comprising: a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon ; a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon ; a control system coupled to the uterine ablation device and the vapor generator, the control system being configured to automatically perform a pre-procedural sterilization of the vapor generator and the uterine ablation device, the control system being configured to pressurize the tip cover , with the at least one balloon inflated, and compare a sensed pressure of the first pressure sensor to a sensed pressure of the second pressure sensor to test for leaks in the at least one balloon , and, after removal of the tip cover , the control system being configured to monitor the application of vapor energy, monitor temperature readings at identified locations on the uterine ablation device, and implement shutdown of the vapor generator following vapor delivery.
An apparatus, being characterized in that it comprises: a makeup compact having a body ; an upper lid hinged with the makeup compact body ; a semi-transparent surface having at least one reflective side and disposed on the inside of the upper lid; and a housing disposed between the semi-transparent surface and the upper lid that is configured to hold a smartphone having a display, such that the semi-transparent reflective surface overlays the display and allows a visual object displayed on the display to be visible on the reflective side of the semi-transparent surface while the reflective side simultaneously shows a reflection of a user viewing the reflective side. a makeup compact having a body ; an upper lid hinged with the makeup compact body ; a semi-transparent surface having at least one reflective side and disposed on the inside of the upper lid; and a housing disposed between the semi-transparent surface and the upper lid that is configured to hold a smartphone having a display, such that the semi-transparent reflective surface overlays the display and allows a visual object displayed on the display to be visible on the reflective side of the semi-transparent surface while the reflective side simultaneously shows a reflection of a user viewing the reflective side.
A method for controlling a maximum allowed speed of an autonomous vehicle , wherein the autonomous vehicle comprises at least one object detection sensor which is configured to detect objects around the vehicle, such as ahead of the vehicle, when the vehicle is driving autonomously, and wherein the at least one object detection sensor is configured to utilize at least two different sensor performance levels, wherein each sensor performance level is associated with a maximum allowed speed for the autonomous vehicle, the method comprising: - utilizing (S1) a first sensor performance level (PL1) during driving where the vehicle is allowed to drive with a first maximum allowed speed, - while utilizing the first sensor performance level (PL1), simultaneously evaluating (S2) at least a second sensor performance level (PL2) which is associated with a second maximum allowed speed which is higher than the first maximum allowed speed and which is a less restrictive sensor performance level, wherein a less restrictive sensor performance level is a sensor performance level with a higher probability of false positive object detections, wherein evaluating the second sensor performance level (PL2) comprises monitoring (S21) a rate of false positive object detections for the second sensor performance level (PL2), - when the rate of false positive object detections for the second sensor performance level (PL2) is below a first false positive error threshold, utilizing (S3) a less restrictive sensor performance level which is associated with a higher maximum allowed speed, thereby increasing the maximum allowed speed from the first maximum allowed speed to a speed which is equal to or below the second maximum allowed speed. - utilizing (S1) a first sensor performance level (PL1) during driving where the vehicle is allowed to drive with a first maximum allowed speed, - while utilizing the first sensor performance level (PL1), simultaneously evaluating (S2) at least a second sensor performance level (PL2) which is associated with a second maximum allowed speed which is higher than the first maximum allowed speed and which is a less restrictive sensor performance level, wherein a less restrictive sensor performance level is a sensor performance level with a higher probability of false positive object detections, wherein evaluating the second sensor performance level (PL2) comprises monitoring (S21) a rate of false positive object detections for the second sensor performance level (PL2), - when the rate of false positive object detections for the second sensor performance level (PL2) is below a first false positive error threshold, utilizing (S3) a less restrictive sensor performance level which is associated with a higher maximum allowed speed, thereby increasing the maximum allowed speed from the first maximum allowed speed to a speed which is equal to or below the second maximum allowed speed.
A variable nozzle used for ejecting exhaust gas of an aeronautic gas turbine engine along its axis (X) from a fore end toward an aft end, comprising: an exhaust duct vectoring a flow (J0) of the exhaust gas to the aft end; a plurality of primary flaps arranged to define a primary flow path converging toward the aft end, each of the primary flaps being swingably pivoted on the exhaust duct to regulate a degree of opening the primary flow path and including a first section at its front and a second section unitarily continuous to the first section ; and a plurality of secondary flaps arranged to define a secondary flow path in communication with the primary flow path , the secondary flow path being capable of divergent toward the aft end, the secondary flaps being respectively swingably pivoted on the second sections of the primary flaps to regulate a degree of opening the secondary flow path , characterized in that : the first section and the second section are respectively flat and the second section forms an angle (alpha) in a range of 132 degrees to 148 degrees radially outward relative to the first section . an exhaust duct vectoring a flow (J0) of the exhaust gas to the aft end; a plurality of primary flaps arranged to define a primary flow path converging toward the aft end, each of the primary flaps being swingably pivoted on the exhaust duct to regulate a degree of opening the primary flow path and including a first section at its front and a second section unitarily continuous to the first section ; and a plurality of secondary flaps arranged to define a secondary flow path in communication with the primary flow path , the secondary flow path being capable of divergent toward the aft end, the secondary flaps being respectively swingably pivoted on the second sections of the primary flaps to regulate a degree of opening the secondary flow path , characterized in that : the first section and the second section are respectively flat and the second section forms an angle (alpha) in a range of 132 degrees to 148 degrees radially outward relative to the first section .
A method of manufacturing a stent-graft prosthesis for implantation within a blood vessel, the method comprising the steps of: positioning a first layer of ePTFE over a mandrel, wherein the mandrel includes an internal heating element positioned within a lumen defined by the mandrel, the internal heating element being the only heating element utilized; positioning at least one annular stent onto the first layer of ePTFE; positioning a second layer of ePTFE over the stent and the first layer of ePTFE; positioning a heat shrink material over the second layer of ePTFE, wherein the heat shrink material fully covers the first and second layers of ePTFE; heating the first and second layers of ePTFE with the heating element within the mandrel at a temperature between 250-290 °C to couple together the first and second layers of ePTFE such that the first layer of ePTFE, the at least one stent, and the second layer of ePTFE form the stent-graft prosthesis, wherein the heating step occurs for four minutes or less; removing the heat shrink material; and removing the stent-graft prosthesis from the mandrel. positioning a first layer of ePTFE over a mandrel, wherein the mandrel includes an internal heating element positioned within a lumen defined by the mandrel, the internal heating element being the only heating element utilized; positioning at least one annular stent onto the first layer of ePTFE; positioning a second layer of ePTFE over the stent and the first layer of ePTFE; positioning a heat shrink material over the second layer of ePTFE, wherein the heat shrink material fully covers the first and second layers of ePTFE; heating the first and second layers of ePTFE with the heating element within the mandrel at a temperature between 250-290 °C to couple together the first and second layers of ePTFE such that the first layer of ePTFE, the at least one stent, and the second layer of ePTFE form the stent-graft prosthesis, wherein the heating step occurs for four minutes or less; removing the heat shrink material; and removing the stent-graft prosthesis from the mandrel.
Electrical device having at least one electrical component , which is a capacitor, which is arranged in the housing which has a cooling apparatus which allows heat to be transported from an interior of the housing to the outside, wherein the cooling apparatus comprises at least one cooling opening (81-86) in the housing , which cooling opening is designed for transporting heat from air heated in the interior of the housing to the outside by means of convection, and wherein the device has damping means for acoustically damping interfering noise created in the interior, wherein the damping means comprise a damping hood which is arranged above the at least one cooling opening and which is provided with a noise-damping material on its side which faces the cooling opening, and wherein a portion of the housing that is covered by the damping hood is provided with a noise-damping material.
A portable vacuum lifter system comprising: a host machine (M); a drive motor coupled to a vacuum pump , a coupler , and a vacuum gauge for displaying a level of vacuum created; a mounting assembly (A) on the host machine (M); a vacuum pad (P) for grabbing an object to be lifted, said vacuum pad (P) having a top surface and a generally flat bottom surface, an elastomeric seal (S) extending around a periphery of the bottom surface, said vacuum pad (P) supported by the host machine (M), said vacuum pad (P) connected to said coupler via a vacuum line (L); and controls for operating said vacuum lifter system; the portable vacuum lifter system being characterized in that it comprises a portable vacuum lifter case (C) containing vacuum lifter components comprising the drive motor , the vacuum pump , a solenoid operated valve in fluid communication with the vacuum pump , the coupler and the vacuum gauge , the coupler extending from the case (C) and the vacuum gauge provided on the case (C); and in that the mounting assembly (A) removably mounts the case (C) to the host machine (M). a host machine (M); a drive motor coupled to a vacuum pump , a coupler , and a vacuum gauge for displaying a level of vacuum created; a mounting assembly (A) on the host machine (M); a vacuum pad (P) for grabbing an object to be lifted, said vacuum pad (P) having a top surface and a generally flat bottom surface, an elastomeric seal (S) extending around a periphery of the bottom surface, said vacuum pad (P) supported by the host machine (M), said vacuum pad (P) connected to said coupler via a vacuum line (L); and controls for operating said vacuum lifter system; the portable vacuum lifter system being characterized in that it comprises a portable vacuum lifter case (C) containing vacuum lifter components comprising the drive motor , the vacuum pump , a solenoid operated valve in fluid communication with the vacuum pump , the coupler and the vacuum gauge , the coupler extending from the case (C) and the vacuum gauge provided on the case (C); and in that the mounting assembly (A) removably mounts the case (C) to the host machine (M).
An apparatus for non-destructive material testing of objects, in particular rims or wheels made of light metal casting, having a fluoroscopy chamber that contains a fluoroscopy device for screening the objects, and having at least one lock and conveyor devices for conveying the objects through the at least one lock into the fluoroscopy chamber and out of the fluoroscopy chamber , wherein the lock comprises a hollow cylinder , the circumferential wall of which has a through opening for the objects conveyed through the hollow cylinder and which is rotatable about the cylinder axis as its rotary axis that is orthogonal to a transporting direction of the objects in order to position the through opening alternately on a side of the lock that faces away from the fluoroscopy chamber or on a side of the lock that faces toward the fluoroscopy chamber , characterized in that the cylinder axis of the hollow cylinder is oriented horizontally.
Door or window frame assembly comprising a frame which has a corner region between a base part and a lateral frame part , in which corner region a rabbet sealing part is arranged, the frame part having surfaces extending, at least in portions, in parallel with a longitudinal extension of the frame part , specifically a first inner surface which faces a frame opening of the frame , and a second inner surface which is oriented at an angle to the first inner surface , characterized in that the second inner surface adjoins a boundary surface which is spaced apart from a base surface of the base part , the boundary surface and the base surface delimiting a free space , a portion of the rabbet sealing part being arranged in the free space or at least in a portion of the free space .
PD-0184264 or a pharmaceutically acceptable salt thereof for use in a method for the prophylaxis and/or treatment of a bacterial infection.
An enema composition comprising: a. a non-ionic block copolymer or mixture of polymers consisting of polyethylene glycol and polypropylene glycol blocks; b. a phospholipid or mixture of phospholipids; c. a corticosteroid; and d. water; wherein the concentration of said non-ionic block copolymer or mixture of polymers is from 200 to 400 g/L, advantageously from 250 to 350g/L; the concentration of said phospholipid or mixture of phospholipids is from 0.04 to 4 g/L; the concentration of said corticosteroid is from 0.05 to 5 g/L; and the remainder of the volume comprises water; such that a gel comprising said components a-d exhibits a gel transition temperature between 32 and 38 degrees C. a. a non-ionic block copolymer or mixture of polymers consisting of polyethylene glycol and polypropylene glycol blocks; b. a phospholipid or mixture of phospholipids; c. a corticosteroid; and d. water;