mhurhangee/ep-ind-claims huggingface dataset:
A method to switch control of processing functions of a network element from an active central processing unit to a standby central processing unit, the method comprising: receiving a signal that the active central processing unit has failed, wherein the active central processing unit controls the processing functions of the network element and the network element includes a hardware forwarding engine; for each shadow table in a plurality of shadow tables in a hardware shadow, copying data from that shadow table to a corresponding one of a plurality of hardware tables for the hardware forwarding engine, wherein a hardware shadow stores a copy of at least some of the data stored in the plurality of hardware tables in a different data structure or order than in the plurality of hardware tables for the hardware forwarding engine; and in response to the copying, switching control of one or more processing functions of the network element from the active central processing unit to the standby central processing unit. receiving a signal that the active central processing unit has failed, wherein the active central processing unit controls the processing functions of the network element and the network element includes a hardware forwarding engine; for each shadow table in a plurality of shadow tables in a hardware shadow, copying data from that shadow table to a corresponding one of a plurality of hardware tables for the hardware forwarding engine, wherein a hardware shadow stores a copy of at least some of the data stored in the plurality of hardware tables in a different data structure or order than in the plurality of hardware tables for the hardware forwarding engine; and in response to the copying, switching control of one or more processing functions of the network element from the active central processing unit to the standby central processing unit.
Mutant Yarrowia lipolytica yeast strain, not expressing the GUT2 gene, said mutant strain being capable of accumulating lipids, characterized in that it does not express at least one gene responsible for the β-oxidation of lipids, chosen from the POX genes (POX1 to POX6), the MFE1 gene or the POT1 gene.
A potted-in insert for providing an attachment point for securing an object to a sandwich panel, the potted-in insert comprising: a shaft having a first outer diameter; a first end having a second outer diameter, wherein the second outer diameter is greater than the first outer diameter; a second end having a third outer diameter; an inner bore extending through the first end, the shaft, and the second end, the inner bore defined by interior surfaces thereof, and having an inner diameter; and, a lattice structure between the first end and the second end and in an area adjacent the shaft between the first outer diameter and the second outer diameter, the lattice structure fixed to the first end, the second end, and/or the shaft, the lattice structure having a plurality of interconnected unit cells each comprising struts connected at nodes to define voids between the struts, the voids being sufficiently large to receive therethrough a potting compound, characterised in that the lattice structure includes more than one layer of the unit cells in a direction extending radially from a longitudinal axis of the shaft; and, wherein the insert further comprises a channel through, and defined by, the lattice structure and extending along the shaft to promote flow of the potting compound therethrough, said channel being aligned with a slot that is through the first end and is defined by recessed surfaces thereof, the slot fluidically coupling an exterior face of the first end with the area adjacent the shaft. a shaft having a first outer diameter; a first end having a second outer diameter, wherein the second outer diameter is greater than the first outer diameter; a second end having a third outer diameter; an inner bore extending through the first end, the shaft, and the second end, the inner bore defined by interior surfaces thereof, and having an inner diameter; and, a lattice structure between the first end and the second end and in an area adjacent the shaft between the first outer diameter and the second outer diameter, the lattice structure fixed to the first end, the second end, and/or the shaft, the lattice structure having a plurality of interconnected unit cells each comprising struts connected at nodes to define voids between the struts, the voids being sufficiently large to receive therethrough a potting compound, characterised in that the lattice structure includes more than one layer of the unit cells in a direction extending radially from a longitudinal axis of the shaft; and, wherein the insert further comprises a channel through, and defined by, the lattice structure and extending along the shaft to promote flow of the potting compound therethrough, said channel being aligned with a slot that is through the first end and is defined by recessed surfaces thereof, the slot fluidically coupling an exterior face of the first end with the area adjacent the shaft.
A cutting method in a packaging machine of products in extensible film fed forwards in continuous, comprising the following steps: - feeding products wound in a continuous packaging or a bundle of products, to a cutting unit; - cutting, by means of said cutting unit, said continuous packaging into finished groups of products arranged in said extensible film, - effecting said cutting step of said continuous packaging or bundle of products with a movable cutting device (51, 52) which is moved forwards at the same advance rate as said packaging or continuous bundle of products to be cut; - implementing said step by effecting, with said movable cutting device in movement, a transversal cut of the perimeter of said packaging or continuous bundle of products which is moving forwards; - in a subsequent step, bringing said movable cutting device back with respect to said continuous packaging or bundle of products that is moving forwards and effecting a new cutting step analogous to the previous one; characterized in that said cutting step of said continuous packaging or bundle of products that is moving forwards is effected simultaneously in two points of said packaging or bundle that are arranged at a distance (d) from each other in the direction of advance of said packaging or bundle that is equal to the length of a finished packaging in the direction of advance of said packaging or bundle, wherein in a first point of said packaging or bundle, the cutting is effected of two vertical sections and two horizontal sections are cut in a second point of said packaging or bundle so that by consecutively repeating this step of cutting the continuous packaging or bundle of products simultaneously in said two points, a finished packaging is created. - feeding products wound in a continuous packaging or a bundle of products, to a cutting unit; - cutting, by means of said cutting unit, said continuous packaging into finished groups of products arranged in said extensible film, - effecting said cutting step of said continuous packaging or bundle of products with a movable cutting device (51, 52) which is moved forwards at the same advance rate as said packaging or continuous bundle of products to be cut; - implementing said step by effecting, with said movable cutting device in movement, a transversal cut of the perimeter of said packaging or continuous bundle of products which is moving forwards; - in a subsequent step, bringing said movable cutting device back with respect to said continuous packaging or bundle of products that is moving forwards and effecting a new cutting step analogous to the previous one;
A mechanical seal structure comprising a Substrate and at least one ceramic seal face layer wherein the ceramic seal face layer is prepared by - feeding a silicon carbide and a silicon into a thermal spray apparatus, - spraying the silicon carbide and the silicon onto the Substrate, whereby the silicon carbide and the silicon deposit on the surface of the Substrate, and - keeping the deposited silicon on the Substrate surface at a temperature which is at least 0.75 times the melting temperature in Kelvin of the silicon and at most 100 K above the melting temperature of the silicon at least in the region where the silicon actually strikes the surface. - feeding a silicon carbide and a silicon into a thermal spray apparatus, - spraying the silicon carbide and the silicon onto the Substrate, whereby the silicon carbide and the silicon deposit on the surface of the Substrate, and - keeping the deposited silicon on the Substrate surface at a temperature which is at least 0.75 times the melting temperature in Kelvin of the silicon and at most 100 K above the melting temperature of the silicon at least in the region where the silicon actually strikes the surface.
A magnetic flow meter, comprising: a flow tube arranged to receive a flow of process fluid; a coil proximate the flowtube arranged to apply a magnetic field to the process fluid in response to an alternating coil drive current; first and second electrodes (6, 8) arranged to sense a voltage potential in the flowtube in response to the applied magnetic field, the voltage potential indicative of flow rate of process fluid through the flowtube; and a sensor coupled to the coil having a sensor output related to the drive current; characterized by a diagnostic circuitry having a diagnostic output as a function of a transient change in the sensor output when current flowing through the coil alternates direction. a flow tube arranged to receive a flow of process fluid; a coil proximate the flowtube arranged to apply a magnetic field to the process fluid in response to an alternating coil drive current; first and second electrodes (6, 8) arranged to sense a voltage potential in the flowtube in response to the applied magnetic field, the voltage potential indicative of flow rate of process fluid through the flowtube; and a sensor coupled to the coil having a sensor output related to the drive current; characterized by a diagnostic circuitry having a diagnostic output as a function of a transient change in the sensor output when current flowing through the coil alternates direction.
The tyre tread containing at least one row of the pattern blocks arranged in the circumferencial direction of the tread, wherein at least one of these blocks is provided with one or more three dimensionally shaped lamellar cuttings in the radial direction of the tyre, and this shaped lamellar cutting is defined by mutually fitting shaped surfaces formed by lamella during the vulcanisation, wherein the lamellar cutting is formed by the lamella consisting of at least three radially arranged blades connected in one axis in the radial direction of the tyre, characterized in that, the surface of each blade contains two flat surface areas with a helical surface area Z between them, wherein the flat surface areas form an angle α around their connection axis, and the total radial depth of the lamellar cutting is H.
A procatalyst, comprising: a preformed magnesium chloride catalyst support having a surface area of greater than or equal to 100 m 2 /g; a titanium containing component; a chlorinating agent; and a hydrocarbon soluble transition metal compound having an oxidation state of greater than or equal to 5+, wherein the hydrocarbon soluble transition metal compound having an oxidation state of greater than or equal to 5+ does not comprise vanadium; wherein the transition metal compound is a metal-ligand complex and (a) the metal-ligand complex is a metal alkoxide or metal halide having structural formula MX n-b (OR 2) b, where M is a transition metal having an oxidation state "n" that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl; or (b) the metal ligand complex is a metal oxyalkoxide having structural formula M(=O)X n-b (OR 2) b, where M is the transition metal having an oxidation state n that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n-2, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl. a preformed magnesium chloride catalyst support having a surface area of greater than or equal to 100 m 2 /g; a titanium containing component; a chlorinating agent; and a hydrocarbon soluble transition metal compound having an oxidation state of greater than or equal to 5+, wherein the hydrocarbon soluble transition metal compound having an oxidation state of greater than or equal to 5+ does not comprise vanadium; wherein the transition metal compound is a metal-ligand complex and (a) the metal-ligand complex is a metal alkoxide or metal halide having structural formula MX n-b (OR 2) b, where M is a transition metal having an oxidation state "n" that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl; or (b) the metal ligand complex is a metal oxyalkoxide having structural formula M(=O)X n-b (OR 2) b, where M is the transition metal having an oxidation state n that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n-2, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl. (a) the metal-ligand complex is a metal alkoxide or metal halide having structural formula MX n-b (OR 2) b, where M is a transition metal having an oxidation state "n" that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl; or (b) the metal ligand complex is a metal oxyalkoxide having structural formula M(=O)X n-b (OR 2) b, where M is the transition metal having an oxidation state n that is greater than or equal to 5+ (not including vanadium), X is a halogen, b is from 0 to n-2, and R 2 is (C 1 -C 20) hydrocarbyl or (C 1 -C 20) heterohydrocarbyl.
A piezoelectric power supply converter, utilized in an AC-to-AC converter, comprising: a transformer, provided with a primary side and a secondary side; at least a first piezoelectric element (12; 31, 32; 91), with its one end connected to said primary side, and its other end is used to receive a pulse voltage and output it to said primary side, said secondary side is used to output said AC voltage to an outside load in performing operations required, wherein said first piezoelectric element (12; 31, 32; 91) is a piezoelectric-oscillator or an insulating piezoelectric oscillator, and wherein an equivalent circuit of said piezoelectric-oscillator includes an equivalent resistor R, an equivalent inductor L, and an equivalent capacitor Ca, and a static capacitor Cb, and said equivalent capacitance of said piezoelectric-oscillator is expressed as: Ca / 1 − ω 2 * Ca * L + Cb wherein ω is an operation frequency (rad/s). a transformer, provided with a primary side and a secondary side; at least a first piezoelectric element (12; 31, 32; 91), with its one end connected to said primary side, and its other end is used to receive a pulse voltage and output it to said primary side, said secondary side is used to output said AC voltage to an outside load in performing operations required, wherein said first piezoelectric element (12; 31, 32; 91) is a piezoelectric-oscillator or an insulating piezoelectric oscillator, and wherein an equivalent circuit of said piezoelectric-oscillator includes an equivalent resistor R, an equivalent inductor L, and an equivalent capacitor Ca, and a static capacitor Cb, and said equivalent capacitance of said piezoelectric-oscillator is expressed as: Ca / 1 − ω 2 * Ca * L + Cb wherein ω is an operation frequency (rad/s).
A chewing gum composition comprising a cannabinoid, wherein the chewing gum composition comprises 25 to 85 % by weight of a gum base, based on the total weight of the chewing gum composition, wherein the cannabinoid is provided in and on voids or pores within a solid material composed of a cellulose, wherein at least 1% by weight to not more than 30 % by weight, based on the total weight of the cannabinoid, in the chewing gum composition is released within 5 minutes after ingestion, and wherein the onset of the release starts within 3 minutes after.
A method of determining a cell signature in a cellular communication network, the method comprising: providing a set of cell signature hypotheses (d(n)), each cell signature hypothesis including a first partial hypothesis (d) and a second partial hypothesis (d(2n+1)); receiving a signal (X(n)) carrying a cell signature, the signal (X(n)) including a first partial signal (X) and a second partial signal (X(2n+1)); correlating the first partial signal (X) with each first partial hypothesis (d) to determine a first correlation result for each cell signature hypothesis; correlating the second partial signal (X(2n+1)) with each second partial hypothesis (d(2n+1)) to determine a second correlation result for each cell signature hypothesis; and determining the cell signature based on the correlation results including discarding a given cell signature hypothesis based on an analysis of a first magnitude of the first correlation result associated with the given cell signature hypothesis and a second magnitude of the second correlation result associated with the given cell signature hypothesis. providing a set of cell signature hypotheses (d(n)), each cell signature hypothesis including a first partial hypothesis (d) and a second partial hypothesis (d(2n+1)); receiving a signal (X(n)) carrying a cell signature, the signal (X(n)) including a first partial signal (X) and a second partial signal (X(2n+1)); correlating the first partial signal (X) with each first partial hypothesis (d) to determine a first correlation result for each cell signature hypothesis; correlating the second partial signal (X(2n+1)) with each second partial hypothesis (d(2n+1)) to determine a second correlation result for each cell signature hypothesis; and determining the cell signature based on the correlation results including discarding a given cell signature hypothesis based on an analysis of a first magnitude of the first correlation result associated with the given cell signature hypothesis and a second magnitude of the second correlation result associated with the given cell signature hypothesis.
An image matching device comprising: a mixed image generation means for generating a mixed image (f) in an operation satisfying linearity, the mixed image (f) being obtained by multiplying each of two or more recorded images by a respective phase component and by adding the multiplied recorded images, wherein the phase components are respective points in a complex plane that are different from each other; a complex similarity image generation means for generating a complex similarity image that is a result of a similarity operation between one or more input image and the mixed image (f); and a similarity obtain means (65, 69) for obtaining similarity from a projected component of the complex similarity image toward a vector of the phase component. a mixed image generation means for generating a mixed image (f) in an operation satisfying linearity, the mixed image (f) being obtained by multiplying each of two or more recorded images by a respective phase component and by adding the multiplied recorded images, wherein the phase components are respective points in a complex plane that are different from each other; a complex similarity image generation means for generating a complex similarity image that is a result of a similarity operation between one or more input image and the mixed image (f); and a similarity obtain means (65, 69) for obtaining similarity from a projected component of the complex similarity image toward a vector of the phase component.
Heat recovery device for an air handling unit, the heat recovery device comprising at least one first and one second counter-flow heat exchanger (2, 3) arranged to exchange energy between a first air stream and a second air stream, and further in connection to an inlet and outlet of said counter-flow heat exchangers (2, 3) are at least two air distributors (6, 7) arranged, and which air distributors (6, 7) are dimensionally coordinated with the inlet and outlet of the counter-flow heat exchangers (2, 3), and which air distributors (6, 7) are arranged to distribute and guide the air to respective from the counter-flow heat exchangers (2, 3) to prevent mixing of the two air streams (4, 5), wherein the height dimension (b) of the second counter-flow heat exchanger differs from the height dimension (a) of the first counter-flow heat exchanger, characterized in that at least the second counter-flow heat exchanger is arranged on top of the first counter-flow heat exchanger, and the sum of the height dimensions (a, b) of all counter-flow heat exchangers (2, 3) arranged on top of each other is almost equal with the interior height dimension (h) of the air handling unit.
A method for converting glycerol to monohydric alcohol, the method comprising: reacting a gaseous mixture comprising glycerol, water, and hydrogen in a first reaction bed comprising a heterogeneous catalyst system comprising a dehydration catalyst and a hydrogenation catalyst, whereby a first reacted mixture is produced; separating at least a portion of the first reacted mixture into a more volatile fraction and a first less volatile fraction in a first condenser; reacting a mixture of hydrogen and at least a portion of the more volatile fraction from the first reacted mixture in a second reactor bed comprising a hydrogenation catalyst, whereby a second reacted mixture comprising a monohydric alcohol is produced; separating at least a portion of the second reacted mixture into a second less volatile fraction comprising a monohydric alcohol and a more volatile fraction in a second condenser. reacting a gaseous mixture comprising glycerol, water, and hydrogen in a first reaction bed comprising a heterogeneous catalyst system comprising a dehydration catalyst and a hydrogenation catalyst, whereby a first reacted mixture is produced; separating at least a portion of the first reacted mixture into a more volatile fraction and a first less volatile fraction in a first condenser; reacting a mixture of hydrogen and at least a portion of the more volatile fraction from the first reacted mixture in a second reactor bed comprising a hydrogenation catalyst, whereby a second reacted mixture comprising a monohydric alcohol is produced; separating at least a portion of the second reacted mixture into a second less volatile fraction comprising a monohydric alcohol and a more volatile fraction in a second condenser.