mhurhangee/ep-ind-claims huggingface dataset:
Gas burner with a burner lower part, in which a lower gas distribution chamber, which is open at the top, is configured, with a burner upper part, which can be positioned loosely on the burner lower part and partially closes off the lower gas distribution chamber, and which comprises a burner ring, in which an annular upper gas distribution chamber is configured, and which has at least one gas throughflow opening corresponding to the lower gas distribution chamber and connecting the lower gas distribution chamber to the upper gas distribution chamber, wherein the burner lower part has at least one radial secondary air passage to supply secondary air to an inner region of the gas burner, wherein the inner region of the gas burner is surrounded by the burner ring, wherein the lower gas distribution chamber has a central region and at least two outer regions extending radially outward from the central region, wherein the outer regions are connected to one another by way of the central region, wherein the lower gas distribution chamber in the burner lower part is defined by a single component and the radial secondary passage is formed on an outer face of the burner lower part between two outer regions respectively of the lower gas distribution chamber, wherein the burner upper part has at least one secondary air throughflow opening, which connects a chamber present in the inner region of the gas burner to the radial secondary air passage, wherein the burner upper part has a burner ring holder, which rests on the burner lower part and in which the gas throughflow openings and the secondary air throughflow openings are configured, wherein the burner ring holder comprises a flat, uninterrupted sealing surface which follows a contour of the lower gas distribution chamber for resting on a top side of the burner lower part, and wherein the top side of the burner lower part likewise forms a flat, uninterrupted sealing surface.
A topical composition comprising encapsulated resveratrol, oligopeptide-1, and niacinamide, and optionally one or more of Opuntia tuna fruit extract, malachite extract, adenosine, algae extract and/or Opuntia ficus-indica fruit extract.
An airfoil for a turbine engine, the airfoil comprising: a cooling chamber disposed inside the airfoil, the cooling chamber configured to direct cooling air inside the airfoil; an impingement hole disposed inside the airfoil and fluidly coupled with the cooling chamber, the impingement hole configured to direct at least some of the cooling air out of the cooling chamber; and a double impingement slot cap assembly coupled with the airfoil, the double impingement slot cap assembly forming a cover over the impingement hole, the double impingement slot cap assembly configured to direct the cooling air exiting the cooling chamber in the airfoil through the impingement hole along one or more exterior surfaces of the airfoil; the airfoil further comprising one or more supports (132, 732, 1032, 1232, 1532) disposed inside the airfoil and coupled with the double impingement slot cap assembly, wherein the supports (132, 732, 1032, 1232, 1532) are configured to direct the cooling air exiting the cooling chamber inside the airfoil around the supports (132, 732, 1032, 1232, 1532), characterised in that the one or more supports (132, 732, 1032, 1232, 1532) are configured to direct at least some of the cooling air exiting the cooling chamber through the impingement hole along different exterior surfaces of the airfoil. a cooling chamber disposed inside the airfoil, the cooling chamber configured to direct cooling air inside the airfoil; an impingement hole disposed inside the airfoil and fluidly coupled with the cooling chamber, the impingement hole configured to direct at least some of the cooling air out of the cooling chamber; and a double impingement slot cap assembly coupled with the airfoil, the double impingement slot cap assembly forming a cover over the impingement hole, the double impingement slot cap assembly configured to direct the cooling air exiting the cooling chamber in the airfoil through the impingement hole along one or more exterior surfaces of the airfoil; the airfoil further comprising one or more supports (132, 732, 1032, 1232, 1532) disposed inside the airfoil and coupled with the double impingement slot cap assembly, wherein the supports (132, 732, 1032, 1232, 1532) are configured to direct the cooling air exiting the cooling chamber inside the airfoil around the supports (132, 732, 1032, 1232, 1532), characterised in that the one or more supports (132, 732, 1032, 1232, 1532) are configured to direct at least some of the cooling air exiting the cooling chamber through the impingement hole along different exterior surfaces of the airfoil.
A DNA molecule exhibiting the promoter activity of SEQ ID NO:32, comprising a polynucleotide sequence selected from: a) a sequence with at least 85 percent sequence identity to the full length of SEQ ID NO:32; b) a sequence comprising SEQ ID NO:32; and c) a fragment comprising at least 500 contiguous nucleotides of SEQ ID NO:32; wherein said DNA molecule is operably linked to a heterologous transcribable polynucleotide molecule. a) a sequence with at least 85 percent sequence identity to the full length of SEQ ID NO:32; b) a sequence comprising SEQ ID NO:32; and c) a fragment comprising at least 500 contiguous nucleotides of SEQ ID NO:32;
A prodrug of 2-(3,5-dichloro-1-methyl-indazol-4-yl)-1-[(1S,3R)-3-(hydroxymethyl)-5-(1-hydroxy-1-methyl-ethyl)-1-methyl-3,4-dihydro-1H-isoquinolin-2-yl]ethanone, which prodrug is represented by formula, wherein R 1 represents -P(=O) 2, -P(=O)(OM 1) 2, -P(=O)(O -) 2 M 2 or -C(=O)R a; R a represents a C 1-6 alkyl substituted by amino; M 1 represents a monovalent cation; and M 2 represents a divalent cation. R 1 represents -P(=O) 2, -P(=O)(OM 1) 2, -P(=O)(O -) 2 M 2 or -C(=O)R a; R a represents a C 1-6 alkyl substituted by amino; M 1 represents a monovalent cation; and M 2 represents a divalent cation.
A turbine engine system, comprising: a first lubricant circuit comprising a first turbine engine component fluidly coupled with a first lubricant heat exchanger; and a second lubricant circuit comprising a second turbine engine component fluidly coupled with a second lubricant heat exchanger, wherein the second lubricant circuit is fluidly coupled with the first lubricant circuit, characterised in that the system further comprises: a third lubricant circuit comprising a lubricant heat exchanger, a lubricant pump and a generator, wherein the third lubricant circuit is configured as a closed-loop lubricant circuit, and the third lubricant circuit is discrete from the first and/or the second lubricant circuits (76, 78), wherein the first lubricant heat exchanger comprises a lubricant-air heat exchanger with a first airflow area, the second lubricant heat exchanger comprises a lubricant-air heat exchanger with a second airflow area, and the first airflow area is greater than the second airflow area. a first lubricant circuit comprising a first turbine engine component fluidly coupled with a first lubricant heat exchanger; and a second lubricant circuit comprising a second turbine engine component fluidly coupled with a second lubricant heat exchanger, wherein the second lubricant circuit is fluidly coupled with the first lubricant circuit, characterised in that the system further comprises: a third lubricant circuit comprising a lubricant heat exchanger, a lubricant pump and a generator, wherein the third lubricant circuit is configured as a closed-loop lubricant circuit, and the third lubricant circuit is discrete from the first and/or the second lubricant circuits (76, 78), wherein the first lubricant heat exchanger comprises a lubricant-air heat exchanger with a first airflow area, the second lubricant heat exchanger comprises a lubricant-air heat exchanger with a second airflow area, and the first airflow area is greater than the second airflow area. a third lubricant circuit comprising a lubricant heat exchanger, a lubricant pump and a generator, wherein the third lubricant circuit is configured as a closed-loop lubricant circuit, and the third lubricant circuit is discrete from the first and/or the second lubricant circuits (76, 78), wherein the first lubricant heat exchanger comprises a lubricant-air heat exchanger with a first airflow area, the second lubricant heat exchanger comprises a lubricant-air heat exchanger with a second airflow area, and the first airflow area is greater than the second airflow area.
A system for determining the location of a mobile device within a vehicle, comprising: the mobile device; a controller located within the vehicle and the controller including a speaker system configured to transmit at least two audio signals, a first audio signal directed generally into a driver space within the vehicle and a second audio signal directed generally into a passenger space within the vehicle; software code stored in memory of the mobile device and having instructions executable by the processor that performs the steps of: (i) detecting the at least two audio signals, (ii) sampling the at least two audio signals for a predetermined period of time; (iii) performing digital signal processing on the sampled at least two audio signals; and (iv) based on the results of the digital signal processing, determining whether the mobile device was located within the driver space of the vehicle during the predetermined period of time, characterised in that the controller is located at a single location within the vehicle and in that both the first audio signal and the second audio signal are detectable by the mobile device when the mobile device is within the vehicle. the mobile device; a controller located within the vehicle and the controller including a speaker system configured to transmit at least two audio signals, a first audio signal directed generally into a driver space within the vehicle and a second audio signal directed generally into a passenger space within the vehicle; software code stored in memory of the mobile device and having instructions executable by the processor that performs the steps of: (i) detecting the at least two audio signals, (ii) sampling the at least two audio signals for a predetermined period of time; (iii) performing digital signal processing on the sampled at least two audio signals; and (iv) based on the results of the digital signal processing, determining whether the mobile device was located within the driver space of the vehicle during the predetermined period of time, characterised in that the controller is located at a single location within the vehicle and in that both the first audio signal and the second audio signal are detectable by the mobile device when the mobile device is within the vehicle.
Method for operating an industrial PC IPC, device, the IPC device including: a general-purpose operating system GPOS, section implemented to execute program code under a GPOS; and a real time operating system RTOS, section implemented to execute program code adapted to real-time data processing under the RTOS; the method comprising: providing a wrapped application program (WRAP) based on an application program including binary code designed to be executed under the RTOS and a security policy; validating the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring the binary code of the validated application program and a security element from the RTOS process to a GPOS process; establishing a secure communications channel between the GPOS process and the RTOS section using the security element; and executing the binary code of the validated application program by the GPOS process. a general-purpose operating system GPOS, section implemented to execute program code under a GPOS; and a real time operating system RTOS, section implemented to execute program code adapted to real-time data processing under the RTOS; the method comprising: providing a wrapped application program (WRAP) based on an application program including binary code designed to be executed under the RTOS and a security policy; validating the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring the binary code of the validated application program and a security element from the RTOS process to a GPOS process; establishing a secure communications channel between the GPOS process and the RTOS section using the security element; and executing the binary code of the validated application program by the GPOS process. providing a wrapped application program (WRAP) based on an application program including binary code designed to be executed under the RTOS and a security policy; validating the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring the binary code of the validated application program and a security element from the RTOS process to a GPOS process; establishing a secure communications channel between the GPOS process and the RTOS section using the security element; and executing the binary code of the validated application program by the GPOS process.
An axial face seal assembly, arranged for co-rotation with a drive shaft in a rotary machine, the seal assembly comprising in consecutive order: - a seal member, a carrier and a base member, all of which are shaped for mounting in concentric relation with a drive shaft, and wherein - the seal member is seated in the carrier to present a sealing end face, the carrier being non-rotatably connected to the base member but movable axially thereto and biased from the base member by means of a compression spring interposed between the base member and the carrier, the base member being axially and non-rotatably securable to a drive shaft by means of an open ring clamp having first end second ends (17; 18), characterized in that the ring clamp is supported on the base member, at least one of the first and second ends (17; 18) movable relative to the other end in a circumferential direction of the ring clamp, wherein a tightening means is rotatably journalled in the base member for adjusting the relative distance between the first and second ends of the ring clamp. - a seal member, a carrier and a base member, all of which are shaped for mounting in concentric relation with a drive shaft, and wherein - the seal member is seated in the carrier to present a sealing end face, the carrier being non-rotatably connected to the base member but movable axially thereto and biased from the base member by means of a compression spring interposed between the base member and the carrier, the base member being axially and non-rotatably securable to a drive shaft by means of an open ring clamp having first end second ends (17; 18),
A header system for an agricultural harvester, comprising: a first reel section; a second reel section; and, one or more sensors configured to generate data indicative of a parameter related to a crop within a field, characterised in that the header system comprises: a controller configured to receive the data and to control a first actuator of the header system to adjust the first reel section independently from the second reel section based on the data as the agricultural harvester travels through the field, the first reel section being adjusted to maintain a desired reel position relative to a crop canopy and/or relative to a ground of the field as the agricultural harvester travels through the field, wherein the controller is configured to receive the data and to control a second actuator of the header system to adjust the second reel section independently from the first reel section based on the data as the agricultural harvester travels through the field, the second reel section being adjusted to maintain the desired reel position relative to the crop canopy and/or relative to the ground as the agricultural harvester travels through the field. a first reel section; a second reel section; and, one or more sensors configured to generate data indicative of a parameter related to a crop within a field, characterised in that the header system comprises: a controller configured to receive the data and to control a first actuator of the header system to adjust the first reel section independently from the second reel section based on the data as the agricultural harvester travels through the field, the first reel section being adjusted to maintain a desired reel position relative to a crop canopy and/or relative to a ground of the field as the agricultural harvester travels through the field, wherein the controller is configured to receive the data and to control a second actuator of the header system to adjust the second reel section independently from the first reel section based on the data as the agricultural harvester travels through the field, the second reel section being adjusted to maintain the desired reel position relative to the crop canopy and/or relative to the ground as the agricultural harvester travels through the field.
Vehicle, in particular for conveying objects, for example vehicle bodies, wherein the vehicle comprises the following: - a main body; - a running gear by means of which the main body rests and/or is movable on a drivable underlying surface; - a drive device for driving the vehicle; - a receptacle device which comprises one receptacle element, two receptacle elements or more than two receptacle elements for receiving at least one object; - an energy storage device for storing and providing electrical energy for driving the vehicle, wherein the energy storage device comprises one or more energy storage units, which are designed as capacitors, in particular supercapacitors or ultracapacitors; - one or more charging connection points for charging the energy storage device. - a main body; - a running gear by means of which the main body rests and/or is movable on a drivable underlying surface; - a drive device for driving the vehicle; - a receptacle device which comprises one receptacle element, two receptacle elements or more than two receptacle elements for receiving at least one object; - an energy storage device for storing and providing electrical energy for driving the vehicle, wherein the energy storage device comprises one or more energy storage units, which are designed as capacitors, in particular supercapacitors or ultracapacitors; - one or more charging connection points for charging the energy storage device.
A double-glass unit having a coated glass where a low-e coating is applied comprising pluralities of metal, metal oxide and metal nitride by utilizing sputtering method in vacuum, characterized by consisting of the following layers of said low-e coating accumulated on the glass and whose thickness range is given, respectively: Layers (material) Thickness, nm Type Chemical formula Glass Base plate Sub-oxide Sub-oxide 20-40 Silicium nitride / Silicium oxi-nitride SiNx/SiOxNy 5-15 Chrome Cr 1-4 Silver Ag 12-18 Chrome Cr 1-4 Silicium nitride / Silicium oxi-nitride SiNx/SiOxNy 45-65 and characterized by consisting of zinc tin oxide as the sub-oxide.
A tyre comprising a tread portion comprising a first shoulder main groove extending continuously in a tyre circumferential direction on a side of a first tread ground contact edge positioned on one side of a tyre equator, a second shoulder main groove extending continuously in the tyre circumferential direction on a side of a second tread ground contact edge positioned on the other side of the tyre equator, at least one crown main groove extending continuously in the tyre circumferential direction between the first shoulder main groove and the second shoulder main groove, a first middle land region defined between the first shoulder main groove and the crown main groove, a second middle land region defined between the second shoulder main groove and the crown main groove, a first shoulder land region defined between the first tread ground contact edge and the first shoulder main groove, and a second shoulder land region defined between the second tread ground contact edge and the second shoulder main groove, wherein the first middle land region is provided with first middle sipes each extending inwardly in a tyre axial direction from the first shoulder main groove to have an inner end in the first middle land region, second middle sipes each extending outwardly in the tyre axial direction from the crown main groove to have an outer end in the first middle land region, the tyre is characterized in that the number of the second middle sipes is larger than the number of the first middle sipes, wherein the tread ground contact edges (Te1, Te2) means outermost tread ground contact edges in a tyre axial direction when the tyre in a standard state is in contact with a flat surface with zero camber angles by being loaded with a standard tyre load.
A crystalline form of 2-((3R,6S)-2-hydroxy-3-(2-(thiophen-2-yl)acetamido)-1,2-oxaborinan-6-yl)acetic acid having an X-ray powder diffraction pattern comprising three or more characteristic peaks expressed in degrees two-theta to within 0.2° selected from 9.0°, 15.7°, 17.3°, 17.6°, 18.1°, 21.3°, 22.4°, 23.5°, 24.9°, 27.2°, 27.4°, 28.1°, 29.1°, 31.2°, and 35.7°.
Method for erecting a wind turbine tower on a foundation body, the wind turbine tower being secured to an upper side of the foundation body by means of anchor rods, characterized by arranging multiple sleeves on a foundation such that the sleeves are oriented vertically, the sleeves being wider than the anchor rods; positioning the sleeves on the upper side of the foundation body that is to be created in such a manner that they are arranged below the intended positions of the anchor rods; creating the foundation body, in particular using concrete, with the foundation body surrounding the sides of the sleeves and the interior of the sleeves remaining free; securing anchor rods with one end thereof in the sleeves or in receptacles of a screw hole ring for a lower end of the wind turbine tower; positioning the screw hole ring over the foundation body in such a manner that the sleeves, the anchor rods and the receptacles of the screw hole ring are all aligned; lowering the screw hole ring onto the foundation body, with the other end of the anchor rods entering into the receptacles of the screw hole ring or into the sleeves; levelling the screw hole ring, pouring a casting compound into the gap between the anchor rods and the internal wall of the sleeves, and mounting the lower end of the tower.
Sealing system for food applications comprising a housing element (10, 20, 30, 40, 50) having two or more bolts and respective clamping holes (11, 21, 31, 41, 51), so as to clamp said housing element (10, 20, 30, 40, 50) to the frame of a machine and a rubber seal (13, 23, 33, 43, 53) arranged along the base perimeter of the housing element (10, 20, 30, 40, 50), wherein said rubber seal (13, 23, 33, 43, 53) comprises a first portion (14, 24, 34, 44, 54) of the rubber profile located in the areas away from the clamping holes (11, 21, 31, 41, 51) and a second portion (15, 25, 35, 45, 55) of the rubber profile adjacent to the clamping holes (11, 21, 31, 41, 51), wherein the rubber profile in the second portion (15, 25, 35, 45, 55) has a thickness in cross-section greater than the thickness in cross-section of the rubber profile in the first portion (14, 24, 34, 44, 54); the sealing system being characterized in that the ratio between the thickness of the second portion (15, 25, 35, 45, 55) of the rubber profile and the thickness of the first portion (14, 24, 34, 44, 54) of the rubber profile ranges between 1.25 and 1.8, so as to, in use, make the deformations of the rubber profile almost uniform all along the base perimeter of the housing element, so that rubber fractures formation and consequently bacteria traps are avoided.