mhurhangee/ep-ind-claims huggingface dataset:
A system for removing material, comprising: a high-pressure fluid connector; and a bit, including: a bit body; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit; a low-pressure nozzle; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface, and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit, the high-pressure connection interface comprising a swivel connection. a high-pressure fluid connector; and a bit, including: a bit body; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit; a low-pressure nozzle; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface, and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit, the high-pressure connection interface comprising a swivel connection. a bit body; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit; a low-pressure nozzle; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface, and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit, the high-pressure connection interface comprising a swivel connection.
A storage system comprising at least one transport vehicle having a plurality of sensors (120-1, 120-2, 120-3, 120-4); a computing device for generating signals to control the movement of the transport vehicle; and a radio modem for receiving radio signals generated by RFID circuits and the sensors and for modulating data signals generated by a computing device into radio signals and transmitting the radio signals to the transport vehicle, characterized in that the system further comprises a grid of guide strips installed in a floor configured for the transport vehicle to align its path by sensing the position of a guide strip relative to the transport vehicle, wherein a radio frequency identification (RFID) circuit is installed in an intersection of two guide strips on the grid of guide strips.
Housing of an axial turbomachine, in particular a compressor (4, 6), the housing including a circular wall with an internal surface having a continuous curve around the circumference of the wall, characterized in that the wall includes flat facets that are designed to receive platforms of stator vanes, and that are flush with the internal curved surface of the wall, the wall having a constant thickness at the facets.
Evaporator film former comprising a heat exchange pipe, tube plates, an evaporator housing with a lid, and a liner and a cap, which are installed in the upper part of the heat exchange pipe located between the tube plates in the evaporator housing, characterized in that the liner is attached to the spindle of a bellows assembly installed on the evaporator lid with a possibility to be remotely controlled performed by a manipulator or by connecting the bellows assembly to an actuator using a rod and provided with a tip made of radiation-resistant material not wetted by the evaporated liquid; the tip being made of two conjugate cones: the upper back cone and the lower right cone, wherein the lower cone being provided with a cylindrical band with projections, which are designed to center the conical tip along the inner surface of the heat exchange tube, and the cap is movable mounted on the liner, and the lower end of the cap is provided with grooves along its entire perimeter. the tip being made of two conjugate cones: the upper back cone and the lower right cone, wherein the lower cone being provided with a cylindrical band with projections, which are designed to center the conical tip along the inner surface of the heat exchange tube, and the cap is movable mounted on the liner, and the lower end of the cap is provided with grooves along its entire perimeter.
An in vitro method of detecting RNA-interacting regions in genomic DNA, the method comprising: introducing an RNA-degrading agent and a DNA-degrading agent into a nucleus, whereby at least one DNA region in the genomic DNA is degraded by the DNA-degrading agent due to the presence of the RNA-degrading agent; and detecting the at least one DNA region in the genomic DNA that is degraded by the DNA-degrading agent, wherein (i) a reduction in the quantity of copies of the DNA region, or (ii) the resistance of the DNA region in the genomic DNA to amplification, or (iii) smaller segments of a DNA sequence detected by size fractionation indicates that the DNA region is degraded by the DNA-degrading agent; thereby detecting the RNA-interacting regions. introducing an RNA-degrading agent and a DNA-degrading agent into a nucleus, whereby at least one DNA region in the genomic DNA is degraded by the DNA-degrading agent due to the presence of the RNA-degrading agent; and detecting the at least one DNA region in the genomic DNA that is degraded by the DNA-degrading agent, wherein (i) a reduction in the quantity of copies of the DNA region, or (ii) the resistance of the DNA region in the genomic DNA to amplification, or (iii) smaller segments of a DNA sequence detected by size fractionation indicates that the DNA region is degraded by the DNA-degrading agent; thereby detecting the RNA-interacting regions. (i) a reduction in the quantity of copies of the DNA region, or (ii) the resistance of the DNA region in the genomic DNA to amplification, or (iii) smaller segments of a DNA sequence detected by size fractionation indicates that the DNA region is degraded by the DNA-degrading agent; thereby detecting the RNA-interacting regions.
A method for manufacturing a high-strength steel sheet having improved formability and ductility according to which the chemical composition of the steel contains, in percent by weight: 0.25% < C ≤ 0.4% 2.3% ≤ Mn ≤ 3.5% 2.3% ≤ Si ≤ 3% Al ≤ 0.040% the remainder being Fe and unavoidable impurities, the method comprising the following successive steps: - hot rolling a sheet made of said steel to obtain a hot rolled steel sheet, - batch annealing said hot rolled steel sheet between 400°C and 700°C for a time between 300 seconds to 10 hours, - cold rolling said hot rolled and batch annealed steel sheet to obtain a cold rolled steel sheet, - annealing said cold rolled steel sheet by soaking it at an annealing temperature AT higher than the transformation point of the steel Ac 3 + 20°C, and less than 1100°C, - quenching the sheet by cooling it down to a quenching temperature QT between the Ms - 65°C and Ms - 115°C of the steel, in order to obtain a final structure containing at least 65 % of martensite and at least 15% of residual austenite, the sum of ferrite and bainite being less than 10 %, Ms being the Ms transformation point of the steel according to the Andrews formula, according to which Ms = 539 - 423 x C - 30.4 x Mn - 12.1 x Cr - 7.5 x Mo - 7.5 x Si, - heating the sheet up to an overaging temperature PT between 360°C and 500°C and maintaining it at said temperature for a time Pt between 300 s and 600 s and, - cooling the sheet down to the room temperature. 0.25% < C ≤ 0.4% 2.3% ≤ Mn ≤ 3.5% 2.3% ≤ Si ≤ 3% Al ≤ 0.040% - hot rolling a sheet made of said steel to obtain a hot rolled steel sheet, - batch annealing said hot rolled steel sheet between 400°C and 700°C for a time between 300 seconds to 10 hours, - cold rolling said hot rolled and batch annealed steel sheet to obtain a cold rolled steel sheet, - annealing said cold rolled steel sheet by soaking it at an annealing temperature AT higher than the transformation point of the steel Ac 3 + 20°C, and less than 1100°C, - quenching the sheet by cooling it down to a quenching temperature QT between the Ms - 65°C and Ms - 115°C of the steel, in order to obtain a final structure containing at least 65 % of martensite and at least 15% of residual austenite, the sum of ferrite and bainite being less than 10 %, Ms being the Ms transformation point of the steel according to the Andrews formula, according to which Ms = 539 - 423 x C - 30.4 x Mn - 12.1 x Cr - 7.5 x Mo - 7.5 x Si, - heating the sheet up to an overaging temperature PT between 360°C and 500°C and maintaining it at said temperature for a time Pt between 300 s and 600 s and, - cooling the sheet down to the room temperature.
Tear unit for a dispenser for dispensing web of paper, the tear unit comprising a tear unit body, said tear unit body comprising a friction surface provided with an elastomer, and wherein said elastomer comprises rounded protrusions distributed along the friction surface such as to facilitate tearing during dispensing of paper, characterised in that said rounded protrusions are rounded in all directions.
Device comprising: - at least one housing having at least one heat source, and - at least one strand (11, 12) forming a more flexible part than the housing, characterized in that the strand (11, 12) comprises two layers (14, 19) of heat-conducting material and a layer of phase change material situated between the two layers of heat-conducting material. - at least one housing having at least one heat source, and - at least one strand (11, 12) forming a more flexible part than the housing,
A vehicular lamp comprising: an optical system (1, 7) including an LED (3a, 3b, 4a, 4b) serving as a light source and an inner lens (2, 10, 20) for performing light distribution control of light emitted from the LED (3a, 3b, 4a, 4b), the vehicular lamp being characterized in that the LED (3a, 3b, 4a, 4b) is composed of a plurality of types of LEDs (3a, 3b, 4a, 4b) having different emission colors, the inner lens (2, 10, 20) is composed of an even number of lenses (10, 20) which have the same shape and size and are formed of the same material, and which are integrally formed side by side in a lateral direction, in a front view of the optical system (1, 7), the LEDs (3a, 3b, 4a, 4b) of different emission colors from each other are positioned at respective line symmetric positions with a symmetric axis (Y 10, Y 20) being a bisector of each of the even-numbered lenses (10, 20) constituting the inner lens in the lateral direction, and the LEDs (3a, 3b, and 4a, 4b) of the same emission color are positioned at respective symmetric positions with a symmetry axis being a bisector of the inner lens in the lateral direction. the LED (3a, 3b, 4a, 4b) is composed of a plurality of types of LEDs (3a, 3b, 4a, 4b) having different emission colors, the inner lens (2, 10, 20) is composed of an even number of lenses (10, 20) which have the same shape and size and are formed of the same material, and which are integrally formed side by side in a lateral direction, in a front view of the optical system (1, 7), the LEDs (3a, 3b, 4a, 4b) of different emission colors from each other are positioned at respective line symmetric positions with a symmetric axis (Y 10, Y 20) being a bisector of each of the even-numbered lenses (10, 20) constituting the inner lens in the lateral direction, and the LEDs (3a, 3b, and 4a, 4b) of the same emission color are positioned at respective symmetric positions with a symmetry axis being a bisector of the inner lens in the lateral direction.
Unit for a CNC machining centre with a spindle, which allows the machining of workpieces by means of a multiaxis system, wherein the unit may be in a functional connection with a tool changer for the spindle, wherein the unit comprises an ultrasound cutting member for machining the workpiece, which can be attached to the spindle of the CNC machining centre, characterized in that the ultrasound cutting member comprises a housing that is at least substantially frusto-conical, wherein the base surface of the frusto-conical housing is formed by a pot-like housing, wherein on the base of the pot-like housing, pivot elements are disposed in a circular path, as engaging mandrels for fastening the unit on a tool receptacle of the spindle.
An analog electronic timepiece comprising: a plurality of hands (61, 62, 63, 64, 65, 66. 67, 68) that are rotatable; a current position acquisition unit that acquires a current position and that stores local time settings in the current position acquisition unit, a processor that rotates the plurality of hands, that reads and acquires a local time setting corresponding to the acquired current position from the current position acquisition unit, and that selects and sets a time zone; and a counting unit that counts local time, wherein the counting unit counts the local time, based on the more recently made action which the processor performs, either the acquired local time setting or the set time zone, characterized in that the local time settings include time zones and daylight saving time implementation information in each area, and the processor controls at least one of the plurality of hands to display a local time determination result as to whether the counted local time is based on the acquired local time setting in correspondence to the current position. a plurality of hands (61, 62, 63, 64, 65, 66. 67, 68) that are rotatable; a current position acquisition unit that acquires a current position and that stores local time settings in the current position acquisition unit, a processor that rotates the plurality of hands, that reads and acquires a local time setting corresponding to the acquired current position from the current position acquisition unit, and that selects and sets a time zone; and a counting unit that counts local time, wherein the counting unit counts the local time, based on the more recently made action which the processor performs, either the acquired local time setting or the set time zone, characterized in that the local time settings include time zones and daylight saving time implementation information in each area, and the processor controls at least one of the plurality of hands to display a local time determination result as to whether the counted local time is based on the acquired local time setting in correspondence to the current position.
A repair process comprising: removing a damaged portion of a service run turbine component to reveal a repair surface; applying a pre-sintered preform to the repair surface of the turbine component; and heating the pre-sintered preform and the turbine component together to form a brazement comprising a replacement protective coating on the repair surface upon cooling of the pre-sintered preform and the turbine component; wherein the pre-sintered pre-form is formed from a mixture of a bond coat powder and a braze powder; wherein the bond coat powder comprises by wt%: Ni: 33.0 - 35.0; Cr: 21.4 - 23.4; Si: 8.6 - 9.2; Al: 2.4 - 3.0; W 1.2 - 1.6; Ta 0.6 - 0.8; B 0.45 - 0.65; C 0.05 - 0.15; Fe 0.15 - 0.45; optionally from 0.01 to 0.3 of a member selected from the group consisting of Ti and Zr; and Co balance and wherein the braze powder comprises by wt %: Ni 32; Cr 21; Al 8; Y 0.5; and Co balance. removing a damaged portion of a service run turbine component to reveal a repair surface; applying a pre-sintered preform to the repair surface of the turbine component; and heating the pre-sintered preform and the turbine component together to form a brazement comprising a replacement protective coating on the repair surface upon cooling of the pre-sintered preform and the turbine component; wherein the pre-sintered pre-form is formed from a mixture of a bond coat powder and a braze powder; wherein the bond coat powder comprises by wt%: Ni: 33.0 - 35.0; Cr: 21.4 - 23.4; Si: 8.6 - 9.2; Al: 2.4 - 3.0; W 1.2 - 1.6; Ta 0.6 - 0.8; B 0.45 - 0.65; C 0.05 - 0.15; Fe 0.15 - 0.45; optionally from 0.01 to 0.3 of a member selected from the group consisting of Ti and Zr; and Co balance and wherein the braze powder comprises by wt %: Ni 32; Cr 21; Al 8; Y 0.5; and Co balance.
A MEMS (200A, 200B, 300A, 300B, 600A, 600B) device comprising; an anchor (240, 242, 183, 184) attached to a first substrate (110, 114, 116); a first plate (140, 142, 143, 144, 146) with a first surface and a second surface; a second plate (150, 153, 154, 156) with a third surface and a fourth surface, attached to the first plate, wherein the second plate is perforated; and a linkage (250, 252, 253, 254, 256) connecting the anchor to the first plate, where the first plate and second plate are displaced in the presence of an acoustic pressure differential between the first and second surfaces of the first plate; wherein the first plate, the second plate, the linkage, and the anchor are contained in an enclosure formed by the first substrate and a second substrate (120, 124); wherein one of the first and second substrates contains an acoustic port (190, 193, 194, 196) to expose the first surface to the environment; wherein at least one second electrode (170, 173, 174, 176) is formed on the first substrate, wherein the MEMS device further comprises a capacitor comprising a first electrode formed by the second plate (150, 153, 154, 156) and said second electrode formed by a conductive layer on the first substrate (110, 114, 116), characterized in that an additional insulating material is disposed on the second electrode, wherein the additional insulating material is extended in select portions to form bump stops (270, 274).
Clamp for preventing removal of a wrist strap attached to a device by means of two ends, one end comprising a strap closure with a buckle and a closing pin and the other end being provided with a longitudinal row of holes for receiving said closing pin, characterized by said clamp being configured to be slid over said buckle while said wrist strap is closed, wherein said clamp is provided with a cover side and comprises at least two lateral sides (3, 4) and at least two legs placed on the inside of said cover side of said clamp and directed inwardly in order to form an angle with said cover side.
A method of bonding a first part of a wind turbine blade to a second part of a wind turbine blade, the method comprising the following steps in any suitable order: (a) providing a first part of a wind turbine blade having a first mounting surface; (b) providing a second part of the wind turbine blade having a second mounting surface and one or more apertures defined in the second mounting surface; (c) providing one or more locating devices on the first mounting surface, the or each locating device comprising a shaft extending from the first mounting surface; (d) arranging the first and second parts such that the first and second mounting surfaces (64, 67) are in mutually opposed relation; (e) inserting an end of the shaft of the or each locating device through a respective aperture in the second mounting surface; (f) providing adhesive between the first and second mounting surfaces (64, 67); (g) applying a clamping force between the first and second parts (66, 62) via the or each locating device, the clamping force serving to move the first and second mounting surfaces closer together and thereby squeezing the adhesive between the respective mounting surfaces (64, 67); and (h) providing one or more stop elements between the first and second mounting surfaces (64, 67), the or each stop element being arranged to maintain a predefined minimum separation between the first and second mounting surfaces and thereby to set a bond height between the first and second parts. (a) providing a first part of a wind turbine blade having a first mounting surface; (b) providing a second part of the wind turbine blade having a second mounting surface and one or more apertures defined in the second mounting surface; (c) providing one or more locating devices on the first mounting surface, the or each locating device comprising a shaft extending from the first mounting surface; (d) arranging the first and second parts such that the first and second mounting surfaces (64, 67) are in mutually opposed relation; (e) inserting an end of the shaft of the or each locating device through a respective aperture in the second mounting surface; (f) providing adhesive between the first and second mounting surfaces (64, 67); (g) applying a clamping force between the first and second parts (66, 62) via the or each locating device, the clamping force serving to move the first and second mounting surfaces closer together and thereby squeezing the adhesive between the respective mounting surfaces (64, 67); and (h) providing one or more stop elements between the first and second mounting surfaces (64, 67), the or each stop element being arranged to maintain a predefined minimum separation between the first and second mounting surfaces and thereby to set a bond height between the first and second parts.
A seismic source array unit comprising a front end wherein it comprises a capstan arranged on said front end, wherein the capstan is rotatable in a first or a second direction, and wherein a deflection line extends from said unit to an adjacent lead-in and back to said capstan arranged on the front end of said unit.