mhurhangee/patent-ind-claim-en huggingface dataset:
A circulating lubricant seal and bearing assembly comprising: a seal and bearing housing comprising a groove to receive a plurality of hydraulically-actuated fail-last-position piston-driven dogs ; a mandrel comprising a mandrel lumen disposed within an inner aperture of the seal and bearing housing ; a first interference-fit sealing element attached to a bottom distal end of the mandrel ; a plurality of tapered-thrust bearings indirectly mounted to the seal and bearing housing to facilitate rotation of the mandrel ; a preload spacer disposed between top and bottom tapered-thrust bearings ; a plurality of jam nuts to adjust a preload of the tapered-thrust bearings ; and a lower seal carrier attached to the seal and bearing housing comprising a plurality of dynamic sealing elements that contact the mandrel and a plurality of static sealing elements that contact the seal and bearing housing . a seal and bearing housing comprising a groove to receive a plurality of hydraulically-actuated fail-last-position piston-driven dogs ; a mandrel comprising a mandrel lumen disposed within an inner aperture of the seal and bearing housing ; a first interference-fit sealing element attached to a bottom distal end of the mandrel ; a plurality of tapered-thrust bearings indirectly mounted to the seal and bearing housing to facilitate rotation of the mandrel ; a preload spacer disposed between top and bottom tapered-thrust bearings ; a plurality of jam nuts to adjust a preload of the tapered-thrust bearings ; and a lower seal carrier attached to the seal and bearing housing comprising a plurality of dynamic sealing elements that contact the mandrel and a plurality of static sealing elements that contact the seal and bearing housing .
Catalytic reactor, containing a catalytic fixed bed having a volume V comprising a support structure and a catalyst, characterized by the following features: • During operation of the reaction, the catalytic fixed bed is filled with reaction medium to at least 85% by volume; and • the contact area of the catalyst with the reaction medium is at least 2000 m 2 per m 3 volume of the catalytic fixed bed; wherein the support structure is formed from material webs having a thickness of 5 to 25 μm, with a crosslinking density of at least 3 mm -3 present; and wherein the support structure consists of metals selected from elements of subgroups 8, 6 and 1 of the periodic table of the elements and mixtures thereof; and wherein (a) the support structure serves as a support body for a catalyst that is applied to the support structure in the form of a catalytically active coating; or wherein (b) cobalt, nickel, copper and/or mixtures thereof are the principal constituent of the support structure and the catalyst applied to the support structure is an activated metal catalyst. • During operation of the reaction, the catalytic fixed bed is filled with reaction medium to at least 85% by volume; and • the contact area of the catalyst with the reaction medium is at least 2000 m 2 per m 3 volume of the catalytic fixed bed; wherein the support structure is formed from material webs having a thickness of 5 to 25 μm, with a crosslinking density of at least 3 mm -3 present; and wherein the support structure consists of metals selected from elements of subgroups 8, 6 and 1 of the periodic table of the elements and mixtures thereof; and wherein (a) the support structure serves as a support body for a catalyst that is applied to the support structure in the form of a catalytically active coating; or wherein (b) cobalt, nickel, copper and/or mixtures thereof are the principal constituent of the support structure and the catalyst applied to the support structure is an activated metal catalyst. wherein the support structure is formed from material webs having a thickness of 5 to 25 μm, with a crosslinking density of at least 3 mm -3 present; and wherein the support structure consists of metals selected from elements of subgroups 8, 6 and 1 of the periodic table of the elements and mixtures thereof; and wherein (a) the support structure serves as a support body for a catalyst that is applied to the support structure in the form of a catalytically active coating; or wherein (b) cobalt, nickel, copper and/or mixtures thereof are the principal constituent of the support structure and the catalyst applied to the support structure is an activated metal catalyst. (a) the support structure serves as a support body for a catalyst that is applied to the support structure in the form of a catalytically active coating; or wherein (b) cobalt, nickel, copper and/or mixtures thereof are the principal constituent of the support structure and the catalyst applied to the support structure is an activated metal catalyst.
A method for manufacturing a metal sheet comprising a steel substrate , at least one face of which is coated with a metal coating comprising Al, the remainder of the metal coating being Zn, inevitable impurities and optionally one or more additional elements selected from Si, Sb, Pb, Ti, Ca, Mn, Sn, La, Ce, Cr, Zr or Bi, the weight content of each additional element in the metal coating being less than 0.3%, the metal coating having a weight content of aluminum comprise between 0.2 and 0.7%, the method comprising at least steps for: - providing the substrate , - depositing a metal coating on at least one face by dipping the substrate in a bath for obtaining the metal sheet , - wiping the metal coating with at least one nozzle projecting through at least one outlet a wiping gas on the metal coating , the metal sheet running in front of the nozzle, the wiping gas being ejected from the nozzle along a main ejection direction (E), - solidifying the metal coating , - the outer surface of the metal coating having, after solidification and before an optional skin-pass operation, a waviness Wa 0.8 of less than or equal to 0.55μm, a method in which at least one of the following equations is verified: Z d + 18 ln Z d < 8 ln P V − 27.52 ƒ O 2 < 2.304.10 − 3 ( 27.52 + Z d + 81 n ( V P ( Z d ) 2.25 ) ) 2 wherein: Z is the distance between the metal sheet and the nozzle along the main ejection direction (E), Z being expressed in mm, d is the average height of the outlet of the nozzle along the running direction (S) of the metal sheet in front of the nozzle , d being expressed in mm, V is the running speed of the metal sheet in front of the nozzle , V being expressed in m.s -1 , P is the pressure of the wiping gas in the nozzle , P being expressed in N.m -2 , and fO 2 is the volume fraction of oxygen in the wiping gas. - providing the substrate , - depositing a metal coating on at least one face by dipping the substrate in a bath for obtaining the metal sheet , - wiping the metal coating with at least one nozzle projecting through at least one outlet a wiping gas on the metal coating , the metal sheet running in front of the nozzle, the wiping gas being ejected from the nozzle along a main ejection direction (E), - solidifying the metal coating , - the outer surface of the metal coating having, after solidification and before an optional skin-pass operation, a waviness Wa 0.8 of less than or equal to 0.55μm, Z is the distance between the metal sheet and the nozzle along the main ejection direction (E), Z being expressed in mm, d is the average height of the outlet of the nozzle along the running direction (S) of the metal sheet in front of the nozzle , d being expressed in mm, V is the running speed of the metal sheet in front of the nozzle , V being expressed in m.s -1 , P is the pressure of the wiping gas in the nozzle , P being expressed in N.m -2 , and fO 2 is the volume fraction of oxygen in the wiping gas.
A method , comprising: at an electronic device with an integrated fingerprint sensor and a secure element: while a first account is actively logged into the electronic device: detecting, using the fingerprint sensor, a respective fingerprint; in accordance with a determination that a first set of one or more criteria is met, transitioning the electronic device such that the first account is no longer actively logged into the electronic device and such that a second account is actively logged into the electronic device; wherein the first set of one or more criteria includes : a first-mode criterion that is met when the electronic device is in a first mode, and a different-account-fingerprint criterion that is met when the respective fingerprint corresponds to the second account of the electronic device; in accordance with a determination that a second set of one or more criteria is met, causing credentials to be released from the secure element for use in an operation; and wherein the second set of one or more criteria includes : a second-mode criterion that is met when the electronic device is in a second mode, and a current-account-fingerprint criterion that is met when the respective fingerprint corresponds to the first account of the electronic device. while a first account is actively logged into the electronic device: detecting, using the fingerprint sensor, a respective fingerprint; in accordance with a determination that a first set of one or more criteria is met, transitioning the electronic device such that the first account is no longer actively logged into the electronic device and such that a second account is actively logged into the electronic device; wherein the first set of one or more criteria includes : a first-mode criterion that is met when the electronic device is in a first mode, and a different-account-fingerprint criterion that is met when the respective fingerprint corresponds to the second account of the electronic device; a first-mode criterion that is met when the electronic device is in a first mode, and a different-account-fingerprint criterion that is met when the respective fingerprint corresponds to the second account of the electronic device; in accordance with a determination that a second set of one or more criteria is met, causing credentials to be released from the secure element for use in an operation; and wherein the second set of one or more criteria includes : a second-mode criterion that is met when the electronic device is in a second mode, and a current-account-fingerprint criterion that is met when the respective fingerprint corresponds to the first account of the electronic device. a second-mode criterion that is met when the electronic device is in a second mode, and a current-account-fingerprint criterion that is met when the respective fingerprint corresponds to the first account of the electronic device.
A method of providing camera settings, said method comprising: retrieving (S1), based on current metadata comprising current position data of a current camera and from a storage, metadata comprising position data and information representative of camera settings for photographs and/or videos available on at least one image and/or video hosting service, characterized in that said current metadata comprises an identifier of said current camera and said metadata comprises an identifier of a camera used when taking a photograph or recoding a video of said photographs and/or videos available on said at least one image and/or video hosting service, said method further comprising: providing (S30) adapted camera settings obtained by adapting, based on said identifier of said current camera and said identifier of said camera, camera settings defined by metadata retrieved from said storage and used when taking a photograph or recording a video selected among said photographs and/or videos available on said at least one image and/or video hosting service; and providing (S2), for transmission to said current camera , current information representative of said adapted camera settings. providing (S30) adapted camera settings obtained by adapting, based on said identifier of said current camera and said identifier of said camera, camera settings defined by metadata retrieved from said storage and used when taking a photograph or recording a video selected among said photographs and/or videos available on said at least one image and/or video hosting service; and providing (S2), for transmission to said current camera , current information representative of said adapted camera settings.
An airfoil comprising: pressure and suction side walls extending in a chord-wise direction (C) between leading and trailing edges , the pressure and suction side walls extending in a radial direction (R) to provide an exterior airfoil surface ; a core cooling passage arranged between the pressure and suction walls in a thickness direction (T) and extending radially toward a tip ; a skin passage having a skin passage height (H) extending in the thickness direction in a range of 0.010-0.200 inches (0.25- 5.08 mm) and a skin passage width (W), the skin passage being arranged in one of the pressure and suction side walls to form a hot side wall and a cold side wall , wherein the hot side wall defines a portion of the exterior airfoil surface , the cold side wall defines a portion of the core cooling passage , and the core cooling passage and the skin passage are configured to have a same direction of fluid flow (F); and a resupply hole (110; 210; 310; 410; 510; 610; 710; 810; 910; 1010; 1110) which fluidly interconnects the core cooling and skin passages , wherein a centerline of the resupply hole (110...1110) is arranged at an acute angle (G) relative to the direction of fluid flow (F) in the core cooling passage , and the acute angle (G) lies in a plane parallel to the thickness direction (T), and the acute angle (G) is in a range of 5°-45°; characterised in that : the skin passage height (H) and/or skin passage width (W) vary along a length in a radial direction, so that the skin passage has an aspect ratio of the skin passage height (H) divided by the skin passage width (W) that varies between 3:1 and 1:5 along the length in a radial direction. pressure and suction side walls extending in a chord-wise direction (C) between leading and trailing edges , the pressure and suction side walls extending in a radial direction (R) to provide an exterior airfoil surface ; a core cooling passage arranged between the pressure and suction walls in a thickness direction (T) and extending radially toward a tip ; a skin passage having a skin passage height (H) extending in the thickness direction in a range of 0.010-0.200 inches (0.25- 5.08 mm) and a skin passage width (W), the skin passage being arranged in one of the pressure and suction side walls to form a hot side wall and a cold side wall , wherein the hot side wall defines a portion of the exterior airfoil surface , the cold side wall defines a portion of the core cooling passage , and the core cooling passage and the skin passage are configured to have a same direction of fluid flow (F); and a resupply hole (110; 210; 310; 410; 510; 610; 710; 810; 910; 1010; 1110) which fluidly interconnects the core cooling and skin passages , wherein a centerline of the resupply hole (110...1110) is arranged at an acute angle (G) relative to the direction of fluid flow (F) in the core cooling passage , and the acute angle (G) lies in a plane parallel to the thickness direction (T), and the acute angle (G) is in a range of 5°-45°;
A loudspeaker arrangement comprising: a mid-range loudspeaker arranged in a dashboard of a vehicle ; a first tweeter arranged adjacent to the mid-range loudspeaker in the dashboard of the vehicle ; and a second tweeter arranged adjacent to the mid-range loudspeaker in the dashboard of the vehicle , wherein the mid-range loudspeaker is arranged between the first tweeter and the second tweeter the mid-range loudspeaker is a non-directional loudspeaker that is arranged to radiate sound towards a driver's seat and towards a passenger seat in equal parts, the first tweeter is a directional loudspeaker that is arranged to radiate sound primarily towards the passenger seat , and the second tweeter is a directional loudspeaker that is arranged to radiate sound primarily towards the driver's seat . a mid-range loudspeaker arranged in a dashboard of a vehicle ; a first tweeter arranged adjacent to the mid-range loudspeaker in the dashboard of the vehicle ; and a second tweeter arranged adjacent to the mid-range loudspeaker in the dashboard of the vehicle , wherein the mid-range loudspeaker is arranged between the first tweeter and the second tweeter the mid-range loudspeaker is a non-directional loudspeaker that is arranged to radiate sound towards a driver's seat and towards a passenger seat in equal parts, the first tweeter is a directional loudspeaker that is arranged to radiate sound primarily towards the passenger seat , and the second tweeter is a directional loudspeaker that is arranged to radiate sound primarily towards the driver's seat .
A method for updating a non-volatile random access memory, NV-RAM, , the NV-RAM partitioned into a non-volatile memory, NVM, region and a random access memory RAM region the method comprising: storing original data in the non-volatile memory, NVM region of the NV-RAM, the NVM region including a region configured to store data; copying the original data to a data area of the random access memory, RAM region of the NV-RAM, wherein the NVM region and the RAM region are different regions and wherein the RAM region is further partitioned into a region to store a flag ; computing updated data from the original data stored in the data area of the RAM ; storing the updated data in the data area of the RAM region; validating an updated flag in the region to store the flag of the RAM region; copying the updated data to the NVM region; and invalidating the updated flag in region to store the flag of the RAM region. storing original data in the non-volatile memory, NVM region of the NV-RAM, the NVM region including a region configured to store data; copying the original data to a data area of the random access memory, RAM region of the NV-RAM, wherein the NVM region and the RAM region are different regions and wherein the RAM region is further partitioned into a region to store a flag ; computing updated data from the original data stored in the data area of the RAM ; storing the updated data in the data area of the RAM region; validating an updated flag in the region to store the flag of the RAM region; copying the updated data to the NVM region; and invalidating the updated flag in region to store the flag of the RAM region.
An accumulator device comprising an outer container having a tube structure, an electrode unit arranged in the outer container , a lithium ion supply source arranged in the outer container , and an electrolytic solution injected into the outer container and containing a lithium salt, wherein the electrode unit is formed by cylindrically winding an electrode stack , which is obtained by stacking a band-like positive electrode , a band-like second separator and a band-like negative electrode in this order on a band-like first separator , from one end thereof, and the positive electrode comprises a positive electrode current collector and an electrode layer containing a positive electrode active material, the negative electrode is doped with a lithium ion by electrochemical contact of the lithium ion supply source with the negative electrode , the electrode layer containing the positive electrode active material is formed on at least one surface of the positive electrode current collector so as to cover the surface of a portion excluding a side edge portion of the positive electrode current collector , and the side edge portion of the positive electrode current collector is electrically connected to the outer container , whereby the outer container is set to a positive potential, characterized in that the lithium ion supply source is composed of filmy lithium metal, and the outer container is formed of aluminum or aluminum alloy. the electrode unit is formed by cylindrically winding an electrode stack , which is obtained by stacking a band-like positive electrode , a band-like second separator and a band-like negative electrode in this order on a band-like first separator , from one end thereof, and the positive electrode comprises a positive electrode current collector and an electrode layer containing a positive electrode active material, the negative electrode is doped with a lithium ion by electrochemical contact of the lithium ion supply source with the negative electrode , the electrode layer containing the positive electrode active material is formed on at least one surface of the positive electrode current collector so as to cover the surface of a portion excluding a side edge portion of the positive electrode current collector , and the side edge portion of the positive electrode current collector is electrically connected to the outer container , whereby the outer container is set to a positive potential, characterized in that the lithium ion supply source is composed of filmy lithium metal, and the outer container is formed of aluminum or aluminum alloy.
A process to increase the storage time of liquid raw food to allow for an increased storage time of liquid raw food, thereby making it possible to eliminate fluctuations between supply and the continuous processing of such food, decreasing the microbial load in liquid food and, at the same time, if so desired, it further allows for reducing the enzyme content in said liquid, characterized by gasifying the liquid food and then giving an instantaneous decompression, the process being conducted under temperatures ranging from 6° C to 50° C and by the fact that the process comprises three sequential steps: a. the first step is to gasify the liquid food, under temperatures ranging from 6° C and 50° C, compressing it with nitrogen or with a nitrogen and carbon dioxide mixture, the mixture being nitrogen with a carbon dioxide content between 1 % to 10% by volume, under pressures ranging from 250 bar to 500 bar; b. the second step consists of leaving the so gasified liquid to rest in tanks, under a given pressure between 250 bar and 500 bar for at least 300 seconds; and c. the third step consists of pouring this liquid, now as a mist, a state that is accomplished using a 60° dispersion angle misting nozzle, onto both the central and upper portion of a cone-shaped decompression tank, with its base turned upside down; part of the gases that break free from the liquid being treated recirculate inside this tank as they are driven by a turbine that aspirates them through the upper portion of the tank in order to inject them tangentially on the vertex of the internal cone. a. the first step is to gasify the liquid food, under temperatures ranging from 6° C and 50° C, compressing it with nitrogen or with a nitrogen and carbon dioxide mixture, the mixture being nitrogen with a carbon dioxide content between 1 % to 10% by volume, under pressures ranging from 250 bar to 500 bar; b. the second step consists of leaving the so gasified liquid to rest in tanks, under a given pressure between 250 bar and 500 bar for at least 300 seconds; and c. the third step consists of pouring this liquid, now as a mist, a state that is accomplished using a 60° dispersion angle misting nozzle, onto both the central and upper portion of a cone-shaped decompression tank, with its base turned upside down; part of the gases that break free from the liquid being treated recirculate inside this tank as they are driven by a turbine that aspirates them through the upper portion of the tank in order to inject them tangentially on the vertex of the internal cone.