mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a starch hydrolysate having a Dextrose Equivalent DEe ranging from 5 to 30 comprising: a) a step of contacting an aqueous solution of starch or starchy material with at least one alpha-amylase comprising an Enzyme V; b) followed by a step of hydrolysing said aqueous solution; c) followed by a step of inhibiting the enzyme V to form an intermediate hydrolysate solution having a DE equal to DE c . d) followed by a step of contacting the intermediate hydrolysate solution obtained in step c) with at least one additional alpha-amylase, different from the Enzyme V; e) followed by a second hydrolysis step to form a hydrolysate for a sufficient time so that it has a Dextrose Equivalent DE e , ranging from 5 to 30; f) followed by a step of recovering the hydrolysate formed in step e); characterised in that the Enzyme V is an enzyme selected from: • the polypeptides encoded by a nucleotide sequence as represented in SEQ ID No: 1 or a nucleotide sequence having a percentage of identity relative to the sequence SEQ ID No: 1 which is at least equal to 80%, or • polypeptides comprising the enzymatically active fragment of the sequence encoded by the sequence SEQ ID No: 1; and in that the additional alpha-amylase different from the Enzyme V is a Bacillus Licheniformis alpha-amylase. a) a step of contacting an aqueous solution of starch or starchy material with at least one alpha-amylase comprising an Enzyme V; b) followed by a step of hydrolysing said aqueous solution; c) followed by a step of inhibiting the enzyme V to form an intermediate hydrolysate solution having a DE equal to DE c . d) followed by a step of contacting the intermediate hydrolysate solution obtained in step c) with at least one additional alpha-amylase, different from the Enzyme V; e) followed by a second hydrolysis step to form a hydrolysate for a sufficient time so that it has a Dextrose Equivalent DE e , ranging from 5 to 30; f) followed by a step of recovering the hydrolysate formed in step e); characterised in that the Enzyme V is an enzyme selected from: • the polypeptides encoded by a nucleotide sequence as represented in SEQ ID No: 1 or a nucleotide sequence having a percentage of identity relative to the sequence SEQ ID No: 1 which is at least equal to 80%, or • polypeptides comprising the enzymatically active fragment of the sequence encoded by the sequence SEQ ID No: 1; and • the polypeptides encoded by a nucleotide sequence as represented in SEQ ID No: 1 or a nucleotide sequence having a percentage of identity relative to the sequence SEQ ID No: 1 which is at least equal to 80%, or • polypeptides comprising the enzymatically active fragment of the sequence encoded by the sequence SEQ ID No: 1; and in that the additional alpha-amylase different from the Enzyme V is a Bacillus Licheniformis alpha-amylase.
Aseptic molding apparatus for molding containers starting from parisons made of a thermoplastic material, comprising: a controlled-contamination environment ; at least a mould located in said controlled-contamination environment , said mould comprising a first half-mould and a second half-mould that can be brought together to define at least a housing cavity for housing a parison , a first support to which said first half-mould is integrally constrained, a second support to which said second half-mould is integrally constrained and at least a compensating chamber for compensating the mechanical deformations of said mould ; a first circuit configured to blow a first fluid into the parison ; a second circuit configured to supply the compensating chamber with the first fluid, characterised in that said compensating chamber has at least an inlet and at least an outlet , and in that said second circuit is configured to supply the compensating chamber also with a second fluid, different from the first fluid, and in that said second circuit comprises: a first aseptic valve configured to establish a selective communication between a first supply line of the first fluid or the second fluid and the inlet of said compensating chamber ; a second aseptic valve configured to establish a selective communication between the outlet of said compensating chamber and a first discharge line . a controlled-contamination environment ; at least a mould located in said controlled-contamination environment , said mould comprising a first half-mould and a second half-mould that can be brought together to define at least a housing cavity for housing a parison , a first support to which said first half-mould is integrally constrained, a second support to which said second half-mould is integrally constrained and at least a compensating chamber for compensating the mechanical deformations of said mould ; a first circuit configured to blow a first fluid into the parison ; a second circuit configured to supply the compensating chamber with the first fluid, characterised in that said compensating chamber has at least an inlet and at least an outlet , and in that said second circuit is configured to supply the compensating chamber also with a second fluid, different from the first fluid, and in that said second circuit comprises: a first aseptic valve configured to establish a selective communication between a first supply line of the first fluid or the second fluid and the inlet of said compensating chamber ; a second aseptic valve configured to establish a selective communication between the outlet of said compensating chamber and a first discharge line . a first aseptic valve configured to establish a selective communication between a first supply line of the first fluid or the second fluid and the inlet of said compensating chamber ; a second aseptic valve configured to establish a selective communication between the outlet of said compensating chamber and a first discharge line .
A method of making a fibrous sheet, the method comprising: (a) forming a nascent web from an aqueous solution of papermaking fibers; (b) dewatering the nascent web to form a dewatered web having a consistency from about ten percent solids to about seventy percent solids; (c) moving the dewatered web on a transfer surface ; (d) applying a vacuum at a molding zone defined between the transfer surface and a molding roll , the molding roll having (i) an interior and (ii) a permeable, exterior patterned surface , the permeable, exterior patterned surface of the molding roll having a plurality of recesses and being permeable to air, and the vacuum being applied in the interior of the molding roll to cause air to flow through the permeable, exterior patterned surface of the molding roll into the interior of the molding roll ; (e) transferring the dewatered web from the transfer surface to the permeable, exterior patterned surface of the molding roll at the molding zone, the vacuum being applied during the transferring of the dewatered web from the transfer surface to the permeable, exterior patterned surface of the molding roll , and papermaking fibers of the dewatered web being (i) redistributed on the permeable, exterior patterned surface of the molding roll and (ii) drawn into the plurality of recesses of the permeable, exterior patterned surface of the molding roll , in order to form a molded paper web; (f) transferring the molded paper web to a drying section; and (g) drying the molded paper web in the drying section to form a fibrous sheet. (a) forming a nascent web from an aqueous solution of papermaking fibers; (b) dewatering the nascent web to form a dewatered web having a consistency from about ten percent solids to about seventy percent solids; (c) moving the dewatered web on a transfer surface ; (d) applying a vacuum at a molding zone defined between the transfer surface and a molding roll , the molding roll having (i) an interior and (ii) a permeable, exterior patterned surface , the permeable, exterior patterned surface of the molding roll having a plurality of recesses and being permeable to air, and the vacuum being applied in the interior of the molding roll to cause air to flow through the permeable, exterior patterned surface of the molding roll into the interior of the molding roll ; (e) transferring the dewatered web from the transfer surface to the permeable, exterior patterned surface of the molding roll at the molding zone, the vacuum being applied during the transferring of the dewatered web from the transfer surface to the permeable, exterior patterned surface of the molding roll , and papermaking fibers of the dewatered web being (i) redistributed on the permeable, exterior patterned surface of the molding roll and (ii) drawn into the plurality of recesses of the permeable, exterior patterned surface of the molding roll , in order to form a molded paper web; (f) transferring the molded paper web to a drying section; and (g) drying the molded paper web in the drying section to form a fibrous sheet.
A system for anchoring a location on a surface of a medical infusion device to the skin of a user, the system comprising: - an adhesive substrate (218, 518, 618a-c) for adhering to the skin of the user; and - an interface (430, 530, 630a-c) attaching a portion of said substrate (218, 518, 618a-c) to the surface of the device and wherein said substrate (218, 518, 618a-c) includes a skirt extending beyond said interface (430, 530, 630a-c), said skirt flexibly attached to said interface (430, 530, 630a-c), characterized in that the system further comprises a stiffener (216, 516, 616a-c) stiffening a portion of said skirt, said stiffener (216, 516, 616a-c) being less flexible than said substrate , wherein a portion of said stiffener (216, 516, 616a-c) interposes between said interface (430, 530, 630a-c) and said substrate (218, 518, 618a-c), wherein said stiffener (216, 516, 616a-c) includes one or more ribs (228a,b, 528a-d) extending from said interface (430, 530, 630a-c) toward an edge of said substrate (218, 518, 618a-c). - an adhesive substrate (218, 518, 618a-c) for adhering to the skin of the user; and - an interface (430, 530, 630a-c) attaching a portion of said substrate (218, 518, 618a-c) to the surface of the device and wherein said substrate (218, 518, 618a-c) includes a skirt extending beyond said interface (430, 530, 630a-c), said skirt flexibly attached to said interface (430, 530, 630a-c),
A disk-shaped clamping plate for mounting in a central opening of a wheel hub of a vehicle wheel , wherein the clamping plate comprises at least one expander device and at least two clamping jaws , and wherein the at least two clamping jaws are connected to each other by the at least one expanding device so as to be movable towards and away from each other.
An attachment system comprising: a primary device having a main body , a front, a rear, two lateral sides and a bar or opening for attaching the primary device to another object, each of the lateral sides having a protrusion thereon; a secondary device pivotally connected to the primary device, the secondary device having two lateral sides, each of the lateral sides being equipped with an aperture that corresponds to one of the protrusions on the primary device so that fitting the protrusions into the apertures pivotally connects the primary device to the secondary device , with the lateral sides of the secondary device being disposed outside of the lateral sides of the primary device, so that the secondary device can be pivoted between a folded position where the secondary device lies against the primary device, and an open position where the secondary device is raised up from the primary device, wherein the primary device is a two-piece buckle, with a male portion and a female portion , characterized in that the secondary device is connected to lateral sides of the male portion , wherein the lateral sides of the secondary device are connected to each other by a top bar that extends beyond a top edge of the male portion , so that pressing down on the top bar causes the secondary device to pivot from a folded position to an open position. a primary device having a main body , a front, a rear, two lateral sides and a bar or opening for attaching the primary device to another object, each of the lateral sides having a protrusion thereon; a secondary device pivotally connected to the primary device, the secondary device having two lateral sides, each of the lateral sides being equipped with an aperture that corresponds to one of the protrusions on the primary device so that fitting the protrusions into the apertures pivotally connects the primary device to the secondary device , with the lateral sides of the secondary device being disposed outside of the lateral sides of the primary device, so that the secondary device can be pivoted between a folded position where the secondary device lies against the primary device, and an open position where the secondary device is raised up from the primary device, wherein the primary device is a two-piece buckle, with a male portion and a female portion , characterized in that the secondary device is connected to lateral sides of the male portion , wherein the lateral sides of the secondary device are connected to each other by a top bar that extends beyond a top edge of the male portion , so that pressing down on the top bar causes the secondary device to pivot from a folded position to an open position.
A method for capture of a large DNA on a mineral matrix for purification comprising: (a) contacting a large DNA-containing sample with a phase separation solution comprising domiphen bromide; (b) capturing the phase separated large DNA from the prepared sample to the mineral matrix to provide captured large DNA; and (c) treating the captured large DNA with a salt solution, thereby increasing the retention of the captured large DNA. (a) contacting a large DNA-containing sample with a phase separation solution comprising domiphen bromide; (b) capturing the phase separated large DNA from the prepared sample to the mineral matrix to provide captured large DNA; and (c) treating the captured large DNA with a salt solution, thereby increasing the retention of the captured large DNA.
An integrated circuit comprising a transistor including: a channel region that comprises a germanium tin portion of a fin , wherein the fin comprises a buffer layer disposed over a substrate and the germanium tin portion disposed on the buffer layer ; a gate disposed over the channel region ; and a source and a drain coupled to the fin , wherein the channel region is between the source and the drain ; and a second transistor including: a second channel region that comprises a second germanium tin portion of a second fin , wherein the second fin comprises a second buffer layer disposed over the substrate and the second germanium tin portion disposed on the second buffer layer , wherein the channel region and the second channel region comprise different concentrations of tin; wherein each of the buffer layers is an epitaxial layer of germanium. a channel region that comprises a germanium tin portion of a fin , wherein the fin comprises a buffer layer disposed over a substrate and the germanium tin portion disposed on the buffer layer ; a gate disposed over the channel region ; and a source and a drain coupled to the fin , wherein the channel region is between the source and the drain ; and a second transistor including: a second channel region that comprises a second germanium tin portion of a second fin , wherein the second fin comprises a second buffer layer disposed over the substrate and the second germanium tin portion disposed on the second buffer layer , wherein the channel region and the second channel region comprise different concentrations of tin; wherein each of the buffer layers is an epitaxial layer of germanium. a second channel region that comprises a second germanium tin portion of a second fin , wherein the second fin comprises a second buffer layer disposed over the substrate and the second germanium tin portion disposed on the second buffer layer , wherein the channel region and the second channel region comprise different concentrations of tin; wherein each of the buffer layers is an epitaxial layer of germanium.
A floating vessel having a hull , at least one seat and two outriggers arranged laterally of the hull and directly or indirectly connected to the hull , wherein each outrigger is assigned a drive unit which can be controlled separately in terms of its drive power, each having at least one propeller driven by a motor, in particular an electric motor, wherein a rudder of the floating vessel is connected to a proportional transducer and a control signal of the proportional transducer is supplied to a control unit which directly or indirectly controls the motors in response to the control signal of the proportional transducer, characterised in that in each case a motor controller is arranged with a power controller in the outriggers and is connected to the control unit, in that the motor controllers control the motor power of the respectively assigned motor in response to the control signal of the proportional transducer, in that accumulators for supplying energy to the motors are arranged in the outriggers and in that the control unit converts an analogue control signal of the proportional transducer into at least one digital control signal and/or in that the proportional transducer outputs a digital control signal and in that the digital control signal is supplied via data connections to the motor controllers arranged in or on the outriggers, which, in response to the digital control signal, control the power of the respectively assigned motor.
A turbomachine comprising a casing and a shaft that is movable in rotation with respect to the casing , a drive system configured to drive the shaft in rotation when the turbomachine is at rest, a sensor configured to measure a bending deformation deflection (F) of the shaft when the turbomachine is at rest, and a control unit , the turbomachine being characterized in that : the control unit is configured, when the turbomachine is at rest, to actuate the drive system when the deformation deflection (F) of the shaft measured by the sensor is greater than a first predetermined value (V1), and to stop rotating the shaft when the deflection (F) is less than or equal to a second predetermined value (V2), the second predetermined value (V2) being less than the first predetermined value (V1), the control unit further being configured to stop rotating the shaft after a second predetermined period (T2) counted from the time where the deflection (F) becomes smaller than the second predetermined value (V2).
A conductor for a winding of a rotating machine, the conductor comprising at least a strand, the at least a strand comprising a first and a second segment , each segment providing at least two teeth and a groove arranged in between the teeth and having in a cross section a C-shaped or E-shaped profile with two ends, wherein surfaces of the teeth of the first segment mate surfaces of the teeth of the second segment , said surfaces of the teeth of the first segment and of the teeth of the second segment are configured to be mated such that the at least one strand encloses a conduit configured to carry a cooling fluid, for each segment at least one of the teeth of the segment , the at least one tooth being arranged at one of said ends of the respective segment, provides at least one protrusion and at least a second one of the teeth of the segment, the at least one second tooth being arranged at the other one of said ends of the respective segment, provides one recessed seat such that any sideways displacement of any one of the segments with respect to the other segment is hindered by virtue of a joint formed by a combination of the protrusions and the recessed seats , characterized in that the segments are joined by friction stir welding or a combination of gluing and friction stir welding, wherein the at least one protrusion of each segment has the shape of a spherical cap in the cross-section.
Method for detecting an isolation fault in an electrical installation by means of a detecting device associated with an electrical load supplied by the electrical installation, the electrical installation comprising an isolation monitor configured to inject a measurement signal into the electrical installation , said injected signal comprising a first component (V1) oscillating periodically at a predefined first frequency (f1) and a second component (V2) oscillating periodically at a predefined second frequency (f2), the electrical phases (P1, P2, P3, N) of the installation being normally isolated from ground, the method comprising steps consisting in: - measuring an AC electrical voltage (U p ) between phase conductors of the electrical load to be monitored and ground, and an electric fault current flowing between said electrical load and ground; - identifying , in the measured electrical voltage (Up), at least one first component (U1) oscillating at the predefined first frequency (f1) and one second component (U2) oscillating at the predefined second frequency (f2); - calculating an impedance (Zd) of the electrical fault from the fault current measurements and from the measured electrical voltage (Up); - calculating an overall impedance (Zg) of the electrical installation from the first and second components identified in the measured electrical voltage; - selecting a predetermined case from a predefined list , depending on the calculated impedances, on the measured electrical voltage and on the measured fault current; - identifying an operating condition of the electrical installation on the basis of the selected predetermined case. - measuring an AC electrical voltage (U p ) between phase conductors of the electrical load to be monitored and ground, and an electric fault current flowing between said electrical load and ground; - identifying , in the measured electrical voltage (Up), at least one first component (U1) oscillating at the predefined first frequency (f1) and one second component (U2) oscillating at the predefined second frequency (f2); - calculating an impedance (Zd) of the electrical fault from the fault current measurements and from the measured electrical voltage (Up); - calculating an overall impedance (Zg) of the electrical installation from the first and second components identified in the measured electrical voltage; - selecting a predetermined case from a predefined list , depending on the calculated impedances, on the measured electrical voltage and on the measured fault current; - identifying an operating condition of the electrical installation on the basis of the selected predetermined case.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt; an organic solvent; and a compound represented by Formula 1 as an additive: wherein, in Formula 1, R a to R c each independently comprise at least one selected from the group consisting of -CR 1 H-CR 2 H-CR 3 H-, where R 1 , R 2 , and R 3 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms; -CR 4 H-CR 5 H-CR 6 H-CR 7 H-, where R 4 , R 5 , R 6 , and R 7 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms; and -CR 8 H-CR 9 H-CR 10 H-CR 11 H-CR 12 H-, where R 8 , R 9 , R 10 , R 11 , and R 12 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms. a lithium salt; an organic solvent; and a compound represented by Formula 1 as an additive: wherein, in Formula 1, R a to R c each independently comprise at least one selected from the group consisting of -CR 1 H-CR 2 H-CR 3 H-, where R 1 , R 2 , and R 3 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms; -CR 4 H-CR 5 H-CR 6 H-CR 7 H-, where R 4 , R 5 , R 6 , and R 7 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms; and -CR 8 H-CR 9 H-CR 10 H-CR 11 H-CR 12 H-, where R 8 , R 9 , R 10 , R 11 , and R 12 are each independently hydrogen or an alkyl group having 1 to 2 carbon atoms.