mhurhangee/patent-ind-claim-en huggingface dataset:
Method of protection of a passive optical network consisting of an optical line terminal connected to a plurality of optical network terminals grouped set-wise, implemented in an extension box situated between the optical line terminal and the plurality of optical network terminals, comprising the following steps: - obtaining (E2, F2) of a send schedule for the optical network terminals, - comparison, (E4a, F4a) by set, of the schedule with the signals sent by the optical network terminals, and if at least one optical network terminal of a set does not send in synchronization with the schedule: - disconnection (E4b) of this set, the method being characterized in that it furthermore comprises the following steps: - sending (E4c, F4d), to the optical line terminal, of a first management cue relating to the disconnection of the set, comprising the identifier of the set and a request for cessation of sending of all the optical network terminals of the set, - verification (F4aa) of the cessation of sending of the optical network terminals of the set, - reconnection (F4b) of the set if cessation of sending is verified. - obtaining (E2, F2) of a send schedule for the optical network terminals, - comparison, (E4a, F4a) by set, of the schedule with the signals sent by the optical network terminals, and if at least one optical network terminal of a set does not send in synchronization with the schedule: - disconnection (E4b) of this set, - sending (E4c, F4d), to the optical line terminal, of a first management cue relating to the disconnection of the set, comprising the identifier of the set and a request for cessation of sending of all the optical network terminals of the set, - verification (F4aa) of the cessation of sending of the optical network terminals of the set, - reconnection (F4b) of the set if cessation of sending is verified.
MEMS comprising: a diaphragm ; a stroke structure coupled to the diaphragm ; and at least two piezoelectric actuators (106_1:106_n) coupled to a plurality of mutually spaced-apart contact points (110_1:110_m) of the stroke structure via a plurality of mutually spaced-apart connecting elements (108_1:108_m); the at least two piezoelectric actuators (106_1:106_n) being configured to cause a stroke movement of the stroke structure so as to deflect the diaphragm ; and wherein each of the at least two piezoelectric actuators (106_1:106_n) is connected to at least two mutually spaced-apart contact points (110_1:110_m) of the stroke structure via at least two mutually spaced-apart connecting elements (108_1:108_m). a diaphragm ; a stroke structure coupled to the diaphragm ; and at least two piezoelectric actuators (106_1:106_n) coupled to a plurality of mutually spaced-apart contact points (110_1:110_m) of the stroke structure via a plurality of mutually spaced-apart connecting elements (108_1:108_m); the at least two piezoelectric actuators (106_1:106_n) being configured to cause a stroke movement of the stroke structure so as to deflect the diaphragm ; and wherein each of the at least two piezoelectric actuators (106_1:106_n) is connected to at least two mutually spaced-apart contact points (110_1:110_m) of the stroke structure via at least two mutually spaced-apart connecting elements (108_1:108_m).
A radiative cooler, particularly for cooling a glass ribbon in a tin bath, having a longitudinal extension and a substantially annular transverse section along said longitudinal extension, the cooling fluid being a gas, characterized in that it comprises two cylindrical tubes each having an axis of revolution, one of said two tubes, referred to as the inner one, being disposed inside the other, referred to as the outside one, the two axes of revolution being parallel to each other, supply and discharge of the cooling fluid are provided on the same side of said longitudinal extension and in that the supply of cooling fluid is distributed from a distribution surface of the cooler formed on an inner tube towards an external exchange surface to the cooler formed on an outer tube on at least a part of the axial extension of the re cooler, the inner tube being disposed inside the outer tube, the inner tube having a plurality of injection holes, along the longitudinal extension, the cooler being further arranged to distribute the gas from the distribution surface to the external exchange surface of the cooler by a rotational flow relative to the main axis of the exchange surface outside of the cooler.
Bifidobacterium longum NCIMB 41003 for use in the prophylaxis or treatment of asthma, chronic obstructive pulmonary disease (COPD), eosinophilic COPD, infection-associated inflammation, allergen-induced inflammation, allergic rhinitis or chronic rhinosinusitis.
A method of making an extract of fruit of the Solanaceae family wherein fruit is processed to optimise the platelet aggregation inhibiting activity of the extract comprising the steps of: (a) preparing a start mix of homogenised fruit, wherein the pH of the start mix does not exceed pH 5.5 and the holding temperature of the start mix does not exceed 35oC; (b) separating a water soluble fraction from fruit solids by a procedure that does not raise the temperature of the fraction above 60 oC; (c) filtration of the water soluble fraction; (d) removal of free sugars from the filtered water soluble fraction wherein: AmberliteTM FPX66 resin is employed to absorb extract components, with the exception of free sugars, organic acids and salts; absorbed extract components are recovered from the resin by elution with ethanol/water mixtures; and ethanol is removed from the eluant by evaporation under reduced pressure or by reverse osmosis; and (e) concentration of active agents in the eluant by a procedure that does not raise the temperature of the fraction above 60 oC; and wherein the extract is a concentrated aqueous solution containing < 1% sugar and containing > 95% of the bioactive components contained in the start mix. (a) preparing a start mix of homogenised fruit, wherein the pH of the start mix does not exceed pH 5.5 and the holding temperature of the start mix does not exceed 35oC; (b) separating a water soluble fraction from fruit solids by a procedure that does not raise the temperature of the fraction above 60 oC; (c) filtration of the water soluble fraction; (d) removal of free sugars from the filtered water soluble fraction wherein: AmberliteTM FPX66 resin is employed to absorb extract components, with the exception of free sugars, organic acids and salts; absorbed extract components are recovered from the resin by elution with ethanol/water mixtures; and ethanol is removed from the eluant by evaporation under reduced pressure or by reverse osmosis; and AmberliteTM FPX66 resin is employed to absorb extract components, with the exception of free sugars, organic acids and salts; absorbed extract components are recovered from the resin by elution with ethanol/water mixtures; and ethanol is removed from the eluant by evaporation under reduced pressure or by reverse osmosis; and (e) concentration of active agents in the eluant by a procedure that does not raise the temperature of the fraction above 60 oC; and
A system for performing ultrasonic procedures within a turbomachine , the system comprising: a first bladder including a first bladder body for positioning within the turbomachine through a first access port , wherein the bladder is inflatable to at least partially define an ultrasonic tank within the turbomachine for containing a fluid medium; a probe assembly including an extension member and ultrasonic transmitter , the ultrasonic transmitter coupled to or positioned within the extension member , the extension member insertable, through a second access port spaced apart from the first access port , into the ultrasonic tank for positioning the ultrasonic transmitter within the ultrasonic tank ; and a second bladder including a second bladder body for positioning within the turbomachine through a third access port spaced apart from the first and second access ports , wherein the second bladder body is inflatable to at least partially define the ultrasonic tank . a first bladder including a first bladder body for positioning within the turbomachine through a first access port , wherein the bladder is inflatable to at least partially define an ultrasonic tank within the turbomachine for containing a fluid medium; a probe assembly including an extension member and ultrasonic transmitter , the ultrasonic transmitter coupled to or positioned within the extension member , the extension member insertable, through a second access port spaced apart from the first access port , into the ultrasonic tank for positioning the ultrasonic transmitter within the ultrasonic tank ; and a second bladder including a second bladder body for positioning within the turbomachine through a third access port spaced apart from the first and second access ports , wherein the second bladder body is inflatable to at least partially define the ultrasonic tank .
A row of artificial eyelashes to be fixed to the edge of an eyelid, having (i) a base part intended to be fixed to the edge of the eyelid, and (ii) false eyelashes , the base part having a first chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, the base part having a second chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, the false eyelashes passing through the stitches of the base part, in particular through the chain stitches of the first warp thread , and being retained in the stitches of the base part without being tied thereto, the row of artificial eyelashes being characterized by the first and second warp threads being interwoven.
Multilayer composite for a security document and/or document of value, which multilayer composite comprises at least one data sheet having a data side and a title side and consisting of at least one fibrous layer and at least one layer made of a polymer and applied to at least one side of the fibrous layer , and having a printed image applied to the data side of the fibrous layer in a print area , wherein at least the region of the fibrous layer that is covered by the printed image is impregnated, at least in some regions, in order to change the opacity of the fibrous layer , with a melt produced under pressure and with heating from a hot melt adhesive patch , and a see-through feature is formed.
A stabilized iron-promoted aluminosilicate zeolite having an FT-IR absorption peak at 3680 ± 5 cm -1 , wherein said peak has a height of at least 0.10 absorbance unit, wherein said zeolite is zeolite beta, and wherein said zeolite has a Si/AI ratio of no more than 10.
A process for synthesis of enantiomerically pure or enantiomerically enriched or racemic mixture of (+and/or-) epicatechin and its intermediates, comprising the steps of: I. obtaining penta-protected quercetin in more than one selective protection steps; II. reducing the penta-protected quercetin obtained from step (i); III. deprotecting the compound of step (ii); IV. reducing the compound obtained from step (iii) in the presence of a chiral/achiral reducing agent to obtain a chiral intermediate; V. deprotecting and/or hydrogenation of the chiral intermediate obtained from step (iv) to obtain (-)epicatechin or (+)epicatechin or a mixture of the two; or comprising the steps of: I. obtaining penta-protected quercetin in more than one selective protection steps; II. reducing the penta-protected quercetin obtained from step (i); VI. simultaneously deprotecting and hydrogenation of the compound obtained from step (ii) to obtain racemic epicatechin. I. obtaining penta-protected quercetin in more than one selective protection steps; II. reducing the penta-protected quercetin obtained from step (i); III. deprotecting the compound of step (ii); IV. reducing the compound obtained from step (iii) in the presence of a chiral/achiral reducing agent to obtain a chiral intermediate; V. deprotecting and/or hydrogenation of the chiral intermediate obtained from step (iv) to obtain (-)epicatechin or (+)epicatechin or a mixture of the two; I. obtaining penta-protected quercetin in more than one selective protection steps; II. reducing the penta-protected quercetin obtained from step (i); VI. simultaneously deprotecting and hydrogenation of the compound obtained from step (ii) to obtain racemic epicatechin.
Method for manufacturing a substrate for a surface acoustic wave radio frequency filter by assembling a piezoelectric layer on a support substrate via an electrically insulating layer , characterized in that it comprises the steps of depositing the electrically insulating layer by means of spin coating an oxide belonging to the SOG (Spin On Glass) family on the surface of the piezoelectric layer to be assembled on the support substrate , followed by annealing to densify said electrically insulating layer prior to assembly, said assembly between the electrically insulating layer and the support substrate surface being effected by direct molecular adhesion bonding.
A liquid crystalline polyester composition, at least containing 100 parts by weight of liquid crystalline polyester (A) and 10 to 100 parts by weight of talc (B), wherein the talc (B) in the composition has a ratio (a1/a2) of oil absorption (a1) ml/100g to specific surface area (a2) m 2 /g in a range of 14.0 to 26.0 (ml·g)/(100g·m 2 ) and has a number-average particle diameter of 10 to 30 μm; wherein the oil absorption (a1) is measured by taking the talc out of the resin composition by heating 50 grams of the resin composition at 550°C for three hours for removal of the resin component, and measuring the oil absorption of the obtained talc in conformity with JIS K-5101; the specific surface area (a2) is measured with a specific surface area meter SS-100 manufactured by Shimadzu Corporation by air permeability method; and the number-average particle diameter is measured using 100 mg of talc weighed and dispersed in water with a laser diffraction/scattering particle size analyzer LA-300 manufactured by HORIBA, Ltd.
Non-therapeutic use of at least one peptide having sequence VRLIVX 1 RIX 2 RR, wherein X 1 is selected from A and K and X 2 is selected from W and K (SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4), or a salt or solvate thereof, as an antimicrobial agent for the prevention and/or treatment of contamination of a product or a surface by Listeria monocytogenes.
Grate plate for use in a grate cooler for hot bulk material having - a first operating region ("covering region") which is alternately covered by at least one additional grate plate when the grate plate is used in a grate cooler, wherein the covering region has at least one pocket for retaining bulk material as an autogenous wear protection layer, and - a second operating region ("non-covering region") which is not covered by an additional grate plate when the grate plate is used in a grate cooler, wherein the non-covering region for retaining bulk material as an autogenous wear protection layer has at least one pocket having at least one opening which leads to the lower side of the grate plate for the introduction of cooling air, characterized in that - the height of the at least one pocket in the covering region is smaller than the height of the at least one pocket in the non-covering region , and in that - the base of the at least one pocket in the covering region is formed by a plurality of segments whose upper sides act as a support face for bulk material and between which gap-like cooling air channels are formed for the supply of cooling air, wherein, when the grate plate is used in a grate cooler, the openings of the cooling air channels which are produced between the upper sides of the segments are each orientated at such an angle with respect to the vertical that there is an acute angle in each case between the conveying direction of the bulk material and the direction of the cooling air flow through the openings. - a first operating region ("covering region") which is alternately covered by at least one additional grate plate when the grate plate is used in a grate cooler, wherein the covering region has at least one pocket for retaining bulk material as an autogenous wear protection layer, and - a second operating region ("non-covering region") which is not covered by an additional grate plate when the grate plate is used in a grate cooler, wherein the non-covering region for retaining bulk material as an autogenous wear protection layer has at least one pocket having at least one opening which leads to the lower side of the grate plate for the introduction of cooling air, characterized in that - the height of the at least one pocket in the covering region is smaller than the height of the at least one pocket in the non-covering region , and in that - the base of the at least one pocket in the covering region is formed by a plurality of segments whose upper sides act as a support face for bulk material and between which gap-like cooling air channels are formed for the supply of cooling air, wherein, when the grate plate is used in a grate cooler, the openings of the cooling air channels which are produced between the upper sides of the segments are each orientated at such an angle with respect to the vertical that there is an acute angle in each case between the conveying direction of the bulk material and the direction of the cooling air flow through the openings.
Label having an upper surface and a lower surface provided at least partially with adhesive, which label comprises at least one seal defined by at least three incisions (t1, t2, t3) which connect the upper surface with the lower surface of the label and also define an appendix that protrudes towards the inside of the seal and is joined to a first portion of the label external to the seal , wherein the lower surface of the seal is provided at least partially with adhesive, characterized in that the lower surface of the appendix is substantially free from adhesive, so that the appendix is suitable to be torn from the seal when the label , applied to a surface , is lifted from this surface .
An organic light-emitting diode (OLED) panel for a lighting device, the OLED panel comprising: a substrate ; an auxiliary wiring pattern disposed on the substrate; a first electrode disposed on the auxiliary wiring pattern, the first electrode having a planarized upper surface; a passivation layer disposed on the first electrode and disposed at least in an area above the auxiliary wiring pattern; an OLED emission structure disposed on the first electrode; and a second electrode disposed on the OLED emission structure, characterised in that the substrate comprises an array area (AA) and a pad area (PA); the auxiliary wiring pattern is disposed in the array area and the pad area on the substrate; the first electrode is disposed in the array area on the auxiliary wiring pattern; and the passivation layer is disposed on the auxiliary wiring pattern, wherein the passivation layer is in direct contact with the auxiliary wiring pattern in the pad area, and the auxiliary wiring pattern in direct contact with the passivation layer is connected to the second electrode . a substrate ; an auxiliary wiring pattern disposed on the substrate; a first electrode disposed on the auxiliary wiring pattern, the first electrode having a planarized upper surface; a passivation layer disposed on the first electrode and disposed at least in an area above the auxiliary wiring pattern; an OLED emission structure disposed on the first electrode; and a second electrode disposed on the OLED emission structure, characterised in that the substrate comprises an array area (AA) and a pad area (PA); the auxiliary wiring pattern is disposed in the array area and the pad area on the substrate; the first electrode is disposed in the array area on the auxiliary wiring pattern; and the passivation layer is disposed on the auxiliary wiring pattern, wherein the passivation layer is in direct contact with the auxiliary wiring pattern in the pad area, and the auxiliary wiring pattern in direct contact with the passivation layer is connected to the second electrode .
An apparatus of a wireless device comprising: memory ; and processing circuitry coupled to the memory , the processing circuitry configured to: encode a high efficiency, HE, packet comprising a plurality of HE signal, HE-SIG, fields , each of the HE-SIG fields comprising an indicator to indicate, an arrangement of resource units, RUs, in frequency for one of a plurality of 20 MHz band , wherein each HE-SIG field is to configure HE stations to receive a data portion of the HE packet in a corresponding 20 MHz band , and wherein each of the HE-SIG fields is separately encoded for transmission on the corresponding 20 MHz band of the HE packet ; and configure the HE packet for transmission by the wireless device . encode a high efficiency, HE, packet comprising a plurality of HE signal, HE-SIG, fields , each of the HE-SIG fields comprising an indicator to indicate, an arrangement of resource units, RUs, in frequency for one of a plurality of 20 MHz band , wherein each HE-SIG field is to configure HE stations to receive a data portion of the HE packet in a corresponding 20 MHz band , and wherein each of the HE-SIG fields is separately encoded for transmission on the corresponding 20 MHz band of the HE packet ; and configure the HE packet for transmission by the wireless device .
Gasifier having burners or burner recesses and slag runner, with the slag runner being arranged on burners or burner recesses to protect against downflowing slag which is formed in the gasification of ash-containing finely divided fuels within a gasifier, characterized in that - the slag runner is formed by a plurality of pipe bends through which cooling medium flows and which in the installed position form a runner area which faces the interior of the gasifier, is oblique to the gasifier wall and shields the burner or the burner recess in the upper region in the direction of gravity and forms an acute angle (α) with the burner wall ; and - a dedicated coolant inlet and coolant outlet is assigned to the pipe bends of the slag runner and the pipe bends forming the slag runner are formed by a piece of pipe whose coolant inlet and coolant outlet passes through the gasifier wall and is joined in a gastight manner to the latter; and - the pipe bends forming the slag runner are provided with pins and rammed with refractory. - the slag runner is formed by a plurality of pipe bends through which cooling medium flows and which in the installed position form a runner area which faces the interior of the gasifier, is oblique to the gasifier wall and shields the burner or the burner recess in the upper region in the direction of gravity and forms an acute angle (α) with the burner wall ; and - a dedicated coolant inlet and coolant outlet is assigned to the pipe bends of the slag runner and the pipe bends forming the slag runner are formed by a piece of pipe whose coolant inlet and coolant outlet passes through the gasifier wall and is joined in a gastight manner to the latter; and - the pipe bends forming the slag runner are provided with pins and rammed with refractory.