mhurhangee/patent-ind-claim-en huggingface dataset:
Firewood splitting machine with improved efficiency of a hydraulic cylinder which is integrated within appropriate framework and adapted for pushing each section of a timber along a suitable guide towards a splitting tool, wherein said cylinder is also integrated within appropriate hydraulic circuit containing a hydraulic media which is suitable for controlling said hydraulic cylinder , wherein said cylinder comprises a tubular casing , which is on its first end portion closed by means of a head , as well as a piston , which is by means of appropriate seals sealed and inserted inside of said tubular casing and movable along it to and fro together with a rod , which protrudes outwards from said casing on the second portion thereof in the area of a guide and seals of the rod , and wherein said cylinder is furnished with a first hydraulic connector , which is arranged in the area of said head , as well as with a second hydraulic connector , which is located on said second end portion thereof, where the rod protrudes out from it, said hydraulic connectors are adapted to supply said hydraulic media towards the interior of the cylinder as well as for draining said hydraulic media from the interior of the cylinder , so that the first hydraulic chamber is defined in the area of said first end portion within the casing of the cylinder between said head and said piston , while the second hydraulic chamber is defined on the second end portion within the casing and extends from the piston and then along the piston rod , characterized in that said first hydraulic connector in the head of the cylinder is arranged along the central axis of said head and comprises a protrusion , which extends in a direction towards the interior of the cylinder and also protrudes into said cylinder , and at least one aperture suitable for flowing the hydraulic media there-through is arranged adjacent to said protrusion , while the piston is furnished with a non-return valve , which is arranged on its front surface, which is faced towards the head , and which is on its side, which is faced towards the head , furnished with a first opening , which is adapted to cooperate with a spring-supported shutoff member , and on its opposite side with a second opening , which is hydraulically connected with a passage , which extends throughout the piston and the rod and enables said hydraulic media to flow towards said second chamber between the rod and the casing of the cylinder , so that in the terminal position of the piston closely to the head or just adjacent to the head said protrusion within the first hydraulic connector on the head is located within said non-return valve , the spring-supported shutoff member is in such case rest on said protrusion against the force generated by a corresponding spring , by which the hydraulic media is allowed to flow from the first hydraulic chamber through said non-return valve as well as through the piston and the rod towards the second hydraulic chamber .
An air data probe (10;26;42) comprising: an air data probe body (12;28;44); and an additively manufactured heater (100-900) on the air data probe body; and characterized in that the heater comprises: a first heater layer on the air data probe body; and a first dielectric layer on the first heater layer; and in that the air data probe body is non-metallic. an air data probe body (12;28;44); and an additively manufactured heater (100-900) on the air data probe body; and characterized in that the heater comprises: a first heater layer on the air data probe body; and a first dielectric layer on the first heater layer; and in that the air data probe body is non-metallic.
A thermal bonding sheet comprising a layer serving as a sintered layer after being heated, wherein an amount of carbon in the layer by a combustion-infrared absorption method after being heated under the following heating condition A is in a range of 0% to 1.6%: <Heating Condition A> the layer is heated at a heating rate of 1.5°C/sec from 80°C to 300°C under pressure of 10 MPa and air atmosphere, and then held at 300°C for 2.5 minutes, and wherein the layer contains: a thermally decomposable binder which is a solid at 23°C, said thermally decomposable binder being selected from the group consisting of polycarbonate and an acrylic resin; a low-boiling binder which is a liquid at 23°C, said low-boiling binder being selected from monohydric alcohols, polyhydric alcohols, ethers, ethylene glycol ethyl ether acetate, ethylene glycol butyl ether acetate, diethylene glycol ethyl ether acetate, diethylene glycol butyl ether acetate, dipropylene glycol methyl ether acetate, and combinations thereof; and fine metal particles in an amount of from 60 to 98% by weight, based on the entire layer, the fine metal particles having an average particle diameter 0.0005 μm or more and 30 μm or less, which is measured by a scanning electron microscope method. the layer is heated at a heating rate of 1.5°C/sec from 80°C to 300°C under pressure of 10 MPa and air atmosphere, and then held at 300°C for 2.5 minutes, and wherein the layer contains: a thermally decomposable binder which is a solid at 23°C, said thermally decomposable binder being selected from the group consisting of polycarbonate and an acrylic resin; a low-boiling binder which is a liquid at 23°C, said low-boiling binder being selected from monohydric alcohols, polyhydric alcohols, ethers, ethylene glycol ethyl ether acetate, ethylene glycol butyl ether acetate, diethylene glycol ethyl ether acetate, diethylene glycol butyl ether acetate, dipropylene glycol methyl ether acetate, and combinations thereof; and fine metal particles in an amount of from 60 to 98% by weight, based on the entire layer, the fine metal particles having an average particle diameter 0.0005 μm or more and 30 μm or less, which is measured by a scanning electron microscope method. a thermally decomposable binder which is a solid at 23°C, said thermally decomposable binder being selected from the group consisting of polycarbonate and an acrylic resin; a low-boiling binder which is a liquid at 23°C, said low-boiling binder being selected from monohydric alcohols, polyhydric alcohols, ethers, ethylene glycol ethyl ether acetate, ethylene glycol butyl ether acetate, diethylene glycol ethyl ether acetate, diethylene glycol butyl ether acetate, dipropylene glycol methyl ether acetate, and combinations thereof; and fine metal particles in an amount of from 60 to 98% by weight, based on the entire layer, the fine metal particles having an average particle diameter 0.0005 μm or more and 30 μm or less, which is measured by a scanning electron microscope method.
A method of producing a shrinkable starch membrane, by the electrospinning process, from a solution which is a mixture of starch and formic acid, characterized in that a solution having a concentration of 18-22% by weight is prepared from corn starch and concentrated formic acid, the concentration of which is 98-99% by weight, is mixed at a temperature of 20-25 °C at a speed of 100-200 rpm. for 0.5-10.0 hours, then the homogeneous solution is allowed to rest for 15-30 hours, after which it is subjected to electrospinning in the conditions of 50-70% relative humidity, with a potential difference between the needle and the collector of 15-17 kV, a distance between the needle and the collector of 8-12 cm, and a polymer solution flow rate of 0.50-0.70 ml/h, thus obtaining a membrane with a porosity of at least 60% and an average fibre diameter of 0.43-1.60 μm, which is stored at a temperature of 20-25 °C in a sealed container impermeable to humidity.
A system comprising: a lock housing having an internal region; a rotatable shaft having a coupling bore extending into the internal region of the lock housing ; a pressure chamber formed within the internal region of the lock housing ; a lock piston positioned within the pressure chamber , the lock piston operable for selectively locking the rotatable shaft ; and a fluid pump in fluid communication with the pressure chamber , wherein the rotatable shaft includes a plurality of key splines protruding radially outward around an outer circumferential wall , and wherein the lock piston includes a plurality of grooves formed on an inner circumferential wall , each groove configured to slidingly receive a corresponding key spline when the lock piston is in a locked position. a lock housing having an internal region; a rotatable shaft having a coupling bore extending into the internal region of the lock housing ; a pressure chamber formed within the internal region of the lock housing ; a lock piston positioned within the pressure chamber , the lock piston operable for selectively locking the rotatable shaft ; and a fluid pump in fluid communication with the pressure chamber , wherein the rotatable shaft includes a plurality of key splines protruding radially outward around an outer circumferential wall , and wherein the lock piston includes a plurality of grooves formed on an inner circumferential wall , each groove configured to slidingly receive a corresponding key spline when the lock piston is in a locked position.
A stand formed of a corrosion-resistant material for supporting a pressure vessel, the stand comprising: a support body having an upper wall and a sidewall extending downwardly from the upper wall; a locking aperture defined in the upper wall configured to permit passage of pressure vessel components therethrough; and a plurality of locking latches disposed along an inner dimension of the locking aperture , the plurality of locking latches configured to couple with a pressure vessel retaining ring passing through the locking aperture , wherein a lower surface of each locking latch is helical for engaging with the pressure vessel by twisting, wherein the lower surface of each one of the locking latches further includes a plurality of locking detents to lockingly couple the support body to pressure vessels of multiple different sizes. a support body having an upper wall and a sidewall extending downwardly from the upper wall; a locking aperture defined in the upper wall configured to permit passage of pressure vessel components therethrough; and a plurality of locking latches disposed along an inner dimension of the locking aperture , the plurality of locking latches configured to couple with a pressure vessel retaining ring passing through the locking aperture , wherein a lower surface of each locking latch is helical for engaging with the pressure vessel by twisting, wherein the lower surface of each one of the locking latches further includes a plurality of locking detents to lockingly couple the support body to pressure vessels of multiple different sizes. wherein a lower surface of each locking latch is helical for engaging with the pressure vessel by twisting, wherein the lower surface of each one of the locking latches further includes a plurality of locking detents to lockingly couple the support body to pressure vessels of multiple different sizes.
Flush water distributor for an item of sanitary ware , such as a toilet bowl or a urinal, having a wall and a siphon section, comprising an external wall extending around a central axis (M), which external wall delimits a pipe section , and a partition wall disposed in the pipe section , which partition wall divides the pipe section into at least one left-hand, one right-hand and one upper distribution section , wherein each of the distribution sections comprises an inlet opening and an outlet opening , wherein, in each of the distribution sections , flush water flows in a direction of flow (F) from the inlet opening to the outlet opening , wherein the outlet opening of the left-hand distribution section , in the installed position and viewed in the direction of flow (F) of the flush water, exits from the flush water distributor laterally on the left through the external wall and is configured for spraying a left-hand section of the wall of the item of sanitary ware , wherein the outlet opening of the right-hand distribution section , in the installed position and viewed in the direction of flow (F) of the flush water, exits from the flush water distributor laterally on the right through the external wall and is configured for spraying a right-hand section of the wall of the item of sanitary ware , wherein the outlet opening of the upper distribution section is configured for flushing out the siphon section, wherein the upper distribution section , viewed in the installed position, is disposed above the left-hand and the right-hand section of the distribution section , and wherein the outlet openings of the left-hand and the right-hand distribution section , viewed in the direction of flow (F) of the flush water, are located ahead of the outlet opening of the upper distribution section .
Safety valve for controlling a gas flow, constructed as a double safety valve with a magnetic armature which can be moved by a voltage applied to a coil , a first valve with a first valve body , a first valve spring , and a first valve seat , and a second valve with a second valve body , a second valve spring and a second valve seat , wherein a movement of the armature acts from a closed position of the safety valve at first against a spring force of the first valve spring and loosens the first valve body from the first valve seat and the movement of the armature subsequently acts against a spring force of the second valve spring and loosens the second valve body from the second valve seat and therefore frees a valve opening for flow-through of the gas flow, characterized in that a spring constant of the second valve spring is greater than a spring constant of the first valve spring , and a flow-through amount of the gas flow through the valve opening can be continuously controlled as a function of the voltage applied to the coil between a closed position and a completely open position, even in partially open positions, wherein the first valve spring has a spring constant which is formed in such a manner that the movement of the armature takes place after a first critical voltage value and moves the first valve body suddenly and completely from the first valve seat into a completely opened open position.
A method for assaying the T cell response specific against a pathogen in a subject which comprises: i) contacting a sample comprising T cells from the subject with a composition comprising an antigen from the pathogen and ii) determining the levels of a plurality of cytokines produced by the T cells in the sample, wherein the levels of the plurality of cytokines are determined by boosted flow cytometry, said boosted flow cytometry comprising detecting, at the same time, several cytokines in the same channel of fluorescence, wherein the plurality of cytokines consist of cytokines characteristic of a Th1 response and cytokines characteristic of a Th2 response, wherein the cytokines characteristic of a Th1 response are IFN-γ, TNF-α, MIP1-β, and IL-2 and wherein the cytokines characteristic of a Th2 response are selected from the group consisting of IL-4, IL-5, IL-6, IL-10, and IL-13.
A method for catalytic oxidation of cellulose using a heterocyclic nitroxyl radical as catalyst, main oxidant acting as oxygen source, and an activator of the heterocyclic nitroxyl radical, characterized in that the method comprises - a separate preliminary activation step of the heterocyclic nitroxyl radical with hypochlorite to activated heterocyclic nitroxyl catalyst in a reaction medium in the absence of cellulose, and after the preliminary activation step - a cellulose oxidation step using the activated catalyst and hypochlorite as main oxidant to oxidize cellulose in a reaction medium comprising the activated heterocyclic nitroxyl catalyst, cellulose, and main oxidant. - a separate preliminary activation step of the heterocyclic nitroxyl radical with hypochlorite to activated heterocyclic nitroxyl catalyst in a reaction medium in the absence of cellulose, and after the preliminary activation step - a cellulose oxidation step using the activated catalyst and hypochlorite as main oxidant to oxidize cellulose in a reaction medium comprising the activated heterocyclic nitroxyl catalyst, cellulose, and main oxidant.
A vehicle body comprising a speaker system, the speaker system comprising: a speaker unit emitting sound from a front side toward a box-shaped space (A1) formed by the vehicle body ; an accommodating unit accommodating a back side of the speaker unit ; and an acoustic tube having one end connected to an internal space of the accommodating unit and another end thereof being opened in the box-shaped space (A1), wherein at least a portion of the acoustic tube includes a first tubular member (P1), characterized in that the first tubular member (P1) is formed of a pillar of the vehicle body , and wherein the another end of the acoustic tube is placed in a location closer to a bottom surface (S3) surrounding the box-shaped space (A1) than to the speaker unit . a speaker unit emitting sound from a front side toward a box-shaped space (A1) formed by the vehicle body ; an accommodating unit accommodating a back side of the speaker unit ; and an acoustic tube having one end connected to an internal space of the accommodating unit and another end thereof being opened in the box-shaped space (A1), wherein at least a portion of the acoustic tube includes a first tubular member (P1), characterized in that the first tubular member (P1) is formed of a pillar of the vehicle body , and wherein the another end of the acoustic tube is placed in a location closer to a bottom surface (S3) surrounding the box-shaped space (A1) than to the speaker unit .
A charging method, comprising: detecting a quantity of electricity of a battery of a terminal and an electricity consumption parameter of the terminal before turning on a fast charging function, determining an estimated charging time according to the quantity of electricity of the battery and the electricity consumption parameter; wherein the estimated charging time is either a completion time of the fast charging, or a constant current charging time in the fast charging, determining whether an abnormal charging occurs according to the estimated charging time after turning on the fast charging function; and either turning off the fast charging function in response to determining that the abnormal charging occurs or reducing a charging power of the fast charging in response to determining that the abnormal charging occurs; wherein detecting the electricity consumption parameter comprises: detecting a present running state of the terminal and a present running application running on the terminal; and determining the electricity consumption parameter according to the present running state and the present running application. detecting a quantity of electricity of a battery of a terminal and an electricity consumption parameter of the terminal before turning on a fast charging function, determining an estimated charging time according to the quantity of electricity of the battery and the electricity consumption parameter; wherein the estimated charging time is either a completion time of the fast charging, or a constant current charging time in the fast charging, determining whether an abnormal charging occurs according to the estimated charging time after turning on the fast charging function; and either turning off the fast charging function in response to determining that the abnormal charging occurs or reducing a charging power of the fast charging in response to determining that the abnormal charging occurs; wherein detecting the electricity consumption parameter comprises: detecting a present running state of the terminal and a present running application running on the terminal; and determining the electricity consumption parameter according to the present running state and the present running application. detecting a present running state of the terminal and a present running application running on the terminal; and determining the electricity consumption parameter according to the present running state and the present running application.
Peptide ligase having the activity of OaAEP1 Cys247Ala set forth in SEQ ID NO:1 comprising or consisting of: (a) the amino acid sequence set forth in SEQ ID NO:1; (b) an amino acid sequence that shares at least 85% sequence identity with the amino acid sequence as set forth in SEQ ID NO:1, provided that said peptide ligase comprises the amino acid sequence set forth in SEQ ID NO:2 at the positions corresponding to residues 247-264 of SEQ ID NO:1, and the amino acid at position 247 is alanine; (c) a functional fragment of (a) or (b) provided that said peptide ligase comprises the amino acid sequence set forth in SEQ ID NO:2 at the positions corresponding to residues 247-264 of SEQ ID NO:1, and the amino acid at position 247 is alanine, wherein the functional fragment is at least 150 amino acids in length; or (d) a polypeptide sequence containing the functional fragment of (c), with the proviso that said peptide ligase is not the wild-type OaAEP1 having the amino acid sequence set forth in SEQ ID NO:3 or butelase 1 having the amino acid sequence set forth in SEQ ID NO:4. (a) the amino acid sequence set forth in SEQ ID NO:1; (b) an amino acid sequence that shares at least 85% sequence identity with the amino acid sequence as set forth in SEQ ID NO:1, provided that said peptide ligase comprises the amino acid sequence set forth in SEQ ID NO:2 at the positions corresponding to residues 247-264 of SEQ ID NO:1, and the amino acid at position 247 is alanine; (c) a functional fragment of (a) or (b) provided that said peptide ligase comprises the amino acid sequence set forth in SEQ ID NO:2 at the positions corresponding to residues 247-264 of SEQ ID NO:1, and the amino acid at position 247 is alanine, wherein the functional fragment is at least 150 amino acids in length; or (d) a polypeptide sequence containing the functional fragment of (c),
A method of forming a sporting implement comprising: placing a plurality of fibers in a cavity formed in a first portion of a mold, the mold having an inlet and an outlet ; positioning a second portion of the mold in contact with the first portion such that the cavity cooperates with the second portion of the mold to define a chamber ; mixing a first material with a second material to form a thermoplastic resin ; injecting the thermoplastic resin into the chamber through the inlet ; closing the inlet and the outlet ; waiting until the thermoplastic resin has completely polymerized so as to form a fiber reinforced sporting element in the chamber ; and removing the sporting element from the chamber ; characterized in that the thermoplastic resin is injected into the chamber at a resin temperature of below approximately 50°C or between approximately 20°C and approximately 60°C. placing a plurality of fibers in a cavity formed in a first portion of a mold, the mold having an inlet and an outlet ; positioning a second portion of the mold in contact with the first portion such that the cavity cooperates with the second portion of the mold to define a chamber ; mixing a first material with a second material to form a thermoplastic resin ; injecting the thermoplastic resin into the chamber through the inlet ; closing the inlet and the outlet ; waiting until the thermoplastic resin has completely polymerized so as to form a fiber reinforced sporting element in the chamber ; and removing the sporting element from the chamber ; characterized in that the thermoplastic resin is injected into the chamber at a resin temperature of below approximately 50°C or between approximately 20°C and approximately 60°C.