mhurhangee/ep-ind-claims huggingface dataset:
Rotary machine having: a rotor; a shaft; a balancing disc arrangement for balancing the rotatable rotor, the balancing disc arrangement having: a plurality of annular balancing discs, the annular balancing discs being designed to be secured to the rotatable rotor in order to rotate synchronously with the latter about a central axis, the annular balancing discs being stackable along the central axis, each of the annular balancing discs having an eccentric recess, so that an unbalance is generated when the annular balancing disc rotates about the central axis, characterized in that the annular balancing discs are formed in each case with a plurality of indentations along a circle concentric to the annular balancing disc. a rotor; a shaft; a balancing disc arrangement for balancing the rotatable rotor, the balancing disc arrangement having: a plurality of annular balancing discs, the annular balancing discs being designed to be secured to the rotatable rotor in order to rotate synchronously with the latter about a central axis, the annular balancing discs being stackable along the central axis, each of the annular balancing discs having an eccentric recess, so that an unbalance is generated when the annular balancing disc rotates about the central axis, characterized in that the annular balancing discs are formed in each case with a plurality of indentations along a circle concentric to the annular balancing disc. a plurality of annular balancing discs, the annular balancing discs being designed to be secured to the rotatable rotor in order to rotate synchronously with the latter about a central axis, the annular balancing discs being stackable along the central axis, each of the annular balancing discs having an eccentric recess, so that an unbalance is generated when the annular balancing disc rotates about the central axis, characterized in that the annular balancing discs are formed in each case with a plurality of indentations along a circle concentric to the annular balancing disc.
Bicycle wheel rim, comprising a wall made of composite material having a plurality of perforated spoke-attachment seats and unidirectional structural fibers which, in areas far from the perforated seats, extend along a longitudinal direction, wherein at least one of said perforated seats is at least in part delimited by: - at least one first area comprising end portions of a first plurality of cut structural fibers; - at least one second area circumferentially spaced apart from said at least one first area and comprising both end portions of a second plurality of cut structural fibers having a longitudinal dimension greater than that of the structural fibers of said first plurality of cut structural fibers, and first portions of continuous structural fibers; characterized in that said at least one second area comprises an area of amassment of end portions of cut structural fibers and of portions of continuous structural fibers, wherein in said area of amassment at least some of the end portions of the structural fibers of said second plurality of cut structural fibers open with respect to a diametral plane of the perforated seat parallel to the longitudinal direction and are in a condition of mutual juxtaposition or of mutual interposition with respect to said first portions of continuous structural fibers. - at least one first area comprising end portions of a first plurality of cut structural fibers; - at least one second area circumferentially spaced apart from said at least one first area and comprising both end portions of a second plurality of cut structural fibers having a longitudinal dimension greater than that of the structural fibers of said first plurality of cut structural fibers, and first portions of continuous structural fibers;
A power device, comprising: - an element producing heat during operation; - an enclosure holding an insulation composition, which is in thermal contact with the element, wherein the insulation composition comprises: - an ester oil, and - a polymer, characterized in that the insulation composition has a thermoreversible gel point in the range from about 30°C to about 90°C, wherein the gel point is defined as the temperature at which a storage modulus G' of the insulation composition is equal to a loss modulus G" of the insulation composition. - an element producing heat during operation; - an enclosure holding an insulation composition, which is in thermal contact with the element, - an ester oil, and - a polymer,
A process for producing electrolytic aluminum with potassium cryolite as a supplemental system, comprising the following steps: Step A: Start electrolysis in an electrolytic tank using a Na 3 AlF 6 -Al 2 O 3 -system or a mixed system of sodium cryolite Na 3 AlF 6, potassium cryolite mKF • AlF 3 and Al 2 O 3, continuously performing the electrolysis and adding Na 3 AlF 6 -AlF 3 until a furnace runs regularly; and Step B: adding an electrolyte supplement system comprising the potassium cryolite mKF • AlF 3, AlF 3 and Na 3 AlF 6 and monitoring the percentage by mass of the potassium element in the electrolyte in the electrolysis vessel so that the mass percentage of the potassium element is in the range of 5% to 10%; wherein m in the potassium cryolite mKF • AlF 3 is 1.0 to 3.0. Step A: Start electrolysis in an electrolytic tank using a Na 3 AlF 6 -Al 2 O 3 -system or a mixed system of sodium cryolite Na 3 AlF 6, potassium cryolite mKF • AlF 3 and Al 2 O 3, continuously performing the electrolysis and adding Na 3 AlF 6 -AlF 3 until a furnace runs regularly; and Step B: adding an electrolyte supplement system comprising the potassium cryolite mKF • AlF 3, AlF 3 and Na 3 AlF 6 and monitoring the percentage by mass of the potassium element in the electrolyte in the electrolysis vessel so that the mass percentage of the potassium element is in the range of 5% to 10%; wherein m in the potassium cryolite mKF • AlF 3 is 1.0 to 3.0.
A thermal management system for cooling a semiconductor device, comprising: a housing enclosing a semiconductor device with at least one channel (100, 102) formed in the housing adjacent to the semiconductor device, and a coolant supply for directing a coolant through the housing to flow through the at least one channel to directly cool the semiconductor device, characterized in that the semiconductor device is one or more LEDs mounted on a substrate in the housing that includes plural channels (100, 102) through which coolants flow, a first coolant directly cooling the one or more LEDs on a first side of the substrate and, as well, a second coolant indirectly cooling the one or more LEDs by cooling an opposite side of the substrate.
Process for producing semiconductor wafers with epitaxial layer deposited from the gas phase in a deposition chamber, comprising the removal from the deposition chamber of material which has deposited in the deposition chamber in the course of preceding coating operations, by etching of the deposition chamber; coating operations carried out in succession in the etched deposition chamber, in each case comprising the placement of a substrate wafer on a susceptor with circular perimeter by a robot, where the robot moves the substrate wafer into a placement position and places it on the susceptor, with a corrective precept causing the center of the substrate wafer not to lie above the center of the susceptor in the placement position; and the deposition of an epitaxial layer on the substrate wafer, substrate wafer, to form a semiconductor wafer with epitaxial layer, characterized in that for each first substrate wafer moved into the placement position by the robot after the etching of the deposition chamber, the amount of the corrective precept corresponds to an average of positional deviations of a number of previously coated substrate wafers themselves each the first to be coated after a preceding chamber etch. the removal from the deposition chamber of material which has deposited in the deposition chamber in the course of preceding coating operations, by etching of the deposition chamber; coating operations carried out in succession in the etched deposition chamber, in each case comprising the placement of a substrate wafer on a susceptor with circular perimeter by a robot, where the robot moves the substrate wafer into a placement position and places it on the susceptor, with a corrective precept causing the center of the substrate wafer not to lie above the center of the susceptor in the placement position; and the deposition of an epitaxial layer on the substrate wafer, substrate wafer, to form a semiconductor wafer with epitaxial layer, characterized in that for each first substrate wafer moved into the placement position by the robot after the etching of the deposition chamber, the amount of the corrective precept corresponds to an average of positional deviations of a number of previously coated substrate wafers themselves each the first to be coated after a preceding chamber etch.
An engineered reverse transcription enzyme, comprising an amino acid sequence that is at least 80% identical to SEQ ID NO: 3, wherein said amino acid sequence comprises: a truncation of at least 20 amino acids from the N-terminus relative to SEQ ID NO: 3; and the mutations E69K, L139P, D200N, E302R, T306K, W313F, T330P, L435GorL435K, P448A, D449G, N454K, D524N or D524A, L603W and E607K relative to SEQ ID NO: 3; wherein said engineered reverse transcription enzyme has (a) higher resistance to cell lysate as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3; or (b) higher activity in a reaction volume of less than 1 nanoliter as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3. a truncation of at least 20 amino acids from the N-terminus relative to SEQ ID NO: 3; and the mutations E69K, L139P, D200N, E302R, T306K, W313F, T330P, L435GorL435K, P448A, D449G, N454K, D524N or D524A, L603W and E607K relative to SEQ ID NO: 3; wherein said engineered reverse transcription enzyme has (a) higher resistance to cell lysate as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3; or (b) higher activity in a reaction volume of less than 1 nanoliter as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3.
Laser headlamp having a laser light source, an illuminant and a light deflecting device, which is set up to illuminate different partial areas (2a, 2b,...) of the illuminant with laser light at different times, the illuminant having the property of scattering incident laser light as scattered light preferably in a first solid angle range, which is smaller than a second solid angle range, into which the illuminant emits fluorescent light, and in which the first solid angle range is completely contained, and with a projection lens having a light entry surface, which is arranged such that the light entry surface intersects the first solid angle range transversely to the direction of propagation of the scattered laser light, wherein the lens is arranged such that a central region of its light-entry surface is illuminated with the light propagating in the first solid angle region, and an outer zone of its light-entry surface surrounding the central region is illuminated with light propagating only in the second solid angle region, but not in the first solid angle region, and wherein an illuminated part of the light-entry surface is larger than the central region, characterised in that the lens in the central region is designed so that it focuses fluorescent light emanating from a point of the illuminant and illuminating the peripheral zone of the light-entry surface into the same image point as fluorescent light (3.1) which emanates from the same point of the illuminant and which illuminates the central region of the light entry surface.
A bidirectional repeater for repeating an electrical signal traversing a conductive line coupled between a gateway node and a sensor in a distributed sensor network, the bidirectional repeater comprising: a first input-output port coupled to the gateway node; a second input-output port coupled to the sensor; a first transceiver configured to receive a synchronization signal from the first input-output port and to transmit a resynchronized data signal to the first input-output port; a second transceiver configured to transmit the synchronization signal to the second input-output port and to receive a data signal from the second input-output port; and a repeater circuit coupled to the first and second transceivers (200a, 200b) and configured to pass through the synchronization signal without re-clocking the synchronization signal, and to resynchronize the data signal to generate the resynchronized data signal. a first input-output port coupled to the gateway node; a second input-output port coupled to the sensor; a first transceiver configured to receive a synchronization signal from the first input-output port and to transmit a resynchronized data signal to the first input-output port; a second transceiver configured to transmit the synchronization signal to the second input-output port and to receive a data signal from the second input-output port; and a repeater circuit coupled to the first and second transceivers (200a, 200b) and configured to pass through the synchronization signal without re-clocking the synchronization signal, and to resynchronize the data signal to generate the resynchronized data signal.
A method for the reconstruction of a Raman spectrum from response spectra (120a-120d) of the light intensity generated by a sample in response to an optical excitation, wherein the response spectra (120a-120d) are responses of the sample to excitations with different excitation spectra (110a-110d), wherein the response spectra (120a-120d) are mapped from their original space to their representations (130a-130d) in a working space by means of a transformation, wherein the transformation is configured such that: a sum of spectra (120a-120d) in the original space is mapped to the sum of the corresponding representations (130a-130d) in the working space and a variables shift in the original space causes a multiplication with a shift factor that is dependent on this variables shift in the working space; characterized by the following steps: in the working space, equations (140a-140c) are set up that each put the difference between at least two representations (130a-130d) of response spectra (120a-120d) into a relationship with the product of a representation of the sought Raman spectrum in the working space with a linear combination of shift factors; from the equations (140a-140c), the representation of the sought Raman spectrum in the working space is determined as a solution, wherein three or more response spectra (120a-120d) are used. a sum of spectra (120a-120d) in the original space is mapped to the sum of the corresponding representations (130a-130d) in the working space and a variables shift in the original space causes a multiplication with a shift factor that is dependent on this variables shift in the working space; in the working space, equations (140a-140c) are set up that each put the difference between at least two representations (130a-130d) of response spectra (120a-120d) into a relationship with the product of a representation of the sought Raman spectrum in the working space with a linear combination of shift factors; from the equations (140a-140c), the representation of the sought Raman spectrum in the working space is determined as a solution, wherein three or more response spectra (120a-120d) are used.
A computer-implemented method (400,500) for detecting aberrant behavior in time-series data, comprising: selecting a data layer of a round-robin database storing DNS look up data, the round-robin database associated with a DNS server, the round-robin database comprising a plurality of data layers, wherein each data layer is associated with a seasonal period having a time between observational values, wherein a seasonal period is an amount of time over which one approximately repeating cycle occurs; obtaining first time-series observation data over a seasonal period associated with the selected data layer from the round-robin database; determining (404,504) time-series prediction data representative of a predicted trend of the first time-series observation data; determining time-series deviation data between the first time-series observation data and the time-series prediction data; determining the mean of the time-series deviation data; determining a standard deviation value representative of a deviation between the first time-series observation data and the time-series prediction data over the seasonal period associated with the selected layer by analyzing the time-series deviation data and the mean of the time-series deviation data; determining a threshold based, at least in part, on the standard deviation value; and detecting aberrant behavior in second time-series observation data based, at least in part, on the threshold. selecting a data layer of a round-robin database storing DNS look up data, the round-robin database associated with a DNS server, the round-robin database comprising a plurality of data layers, wherein each data layer is associated with a seasonal period having a time between observational values, wherein a seasonal period is an amount of time over which one approximately repeating cycle occurs; obtaining first time-series observation data over a seasonal period associated with the selected data layer from the round-robin database; determining (404,504) time-series prediction data representative of a predicted trend of the first time-series observation data; determining time-series deviation data between the first time-series observation data and the time-series prediction data; determining the mean of the time-series deviation data; determining a standard deviation value representative of a deviation between the first time-series observation data and the time-series prediction data over the seasonal period associated with the selected layer by analyzing the time-series deviation data and the mean of the time-series deviation data; determining a threshold based, at least in part, on the standard deviation value; and detecting aberrant behavior in second time-series observation data based, at least in part, on the threshold.
Shut-off valve comprising a magnet yoke, a magnet coil and a compression spring, and also comprising a guide (111, 122, 132), a guide pin (110, 120, 130) and a magnet armature which is connected to the guide pin (110, 120, 130) and on which an elastic diaphragm is arranged, wherein the diaphragm is able to be pressed, such that sealing closure is realized, onto at least one fluid port (108, 109), and the compression spring is arranged in such a way as to surround the magnet coil; wherein the diaphragm, the compression spring, the magnet armature, the guide (111, 122, 132) and the guide pin (110, 120, 130) are configured such that the shut-off valve can assume the following modes: - a blocking mode, in which, by way of the spring force of the compression spring, the diaphragm closes off both a fluid inlet and a fluid outlet without electrical energization if, at the fluid inlet and at the fluid outlet, the pressure (p) is below a defined pressure (p 2); - a metering mode, in which the shut-off valve opens without electrical energization if, at the fluid inlet and/or at the fluid outlet, the pressure (p) is above the defined pressure (p 2); - and a suck-back mode, in which a magnetic force between the magnet yoke and the magnet armature keeps the shut-off valve in an open position. - a blocking mode, in which, by way of the spring force of the compression spring, the diaphragm closes off both a fluid inlet and a fluid outlet without electrical energization if, at the fluid inlet and at the fluid outlet, the pressure (p) is below a defined pressure (p 2); - a metering mode, in which the shut-off valve opens without electrical energization if, at the fluid inlet and/or at the fluid outlet, the pressure (p) is above the defined pressure (p 2); - and a suck-back mode, in which a magnetic force between the magnet yoke and the magnet armature keeps the shut-off valve in an open position.
A communication system for providing an access to an IP network to a wireless terminal, the communication system comprising: a gateway of a mobile virtual network enabler or a mobile virtual network operator, the gateway configured to pass data from the wireless terminal to the IP network, wherein the gateway comprises a first group of servers and a second group of servers, each of the first group of servers and the second group of servers including a plurality of servers on a public cloud outside of a communication infrastructure of a mobile network operator, MNO, the first group of servers being connected between the communication infrastructure of the MNO and the second group of servers; wherein each server of the first group of servers comprises: a receiving unit configured to receive data from the wireless terminal; a selecting unit configured to select one of a plurality of destination IP addresses as a destination for the received data based on a header of the received data; and a forwarding unit configured to forward the received data to a server of the second group of servers corresponding to the destination IP address selected by the selecting unit; and wherein the server of the second group of servers is configured to perform additional data processing to the received data other than data processing performed by the first group of servers, and wherein the communication system is configured to control the number of servers constituting the second group of servers to be larger than the number of servers constituting the first group of servers. a receiving unit configured to receive data from the wireless terminal; a selecting unit configured to select one of a plurality of destination IP addresses as a destination for the received data based on a header of the received data; and a forwarding unit configured to forward the received data to a server of the second group of servers corresponding to the destination IP address selected by the selecting unit; and
A method for inhibiting nicotinamide coenzyme degradation in a wheat based product, comprising the addition of an effective amount of nucleotide pyrophosphatase inhibitor to said wheat based product, and wherein further a coenzyme regeneration system is added to the wheat based product.
A vehicle interior system (100, 200, 300) comprising: a base (110, 210, 310) comprising a curved surface (120, 220, 320); and a glass substrate (140, 150) comprising a first major surface, a second major surface, a minor surface connecting the first major surface and the second major surface, and a thickness (t) in a range from 0.05 mm to 2 mm, wherein the second major surface comprises a first radius of curvature of 500 mm or greater, wherein, when an impacter having a mass of 6.8 kg impacts the first major surface at an impact velocity of 5.35 mis to 6.69 mis, the deceleration of the impacter is 120 g (g-force) or less; and wherein at least one edge region of the glass substrate (140, 150) is strengthened for improved edge impact performance. a base (110, 210, 310) comprising a curved surface (120, 220, 320); and a glass substrate (140, 150) comprising a first major surface, a second major surface, a minor surface connecting the first major surface and the second major surface, and a thickness (t) in a range from 0.05 mm to 2 mm, wherein the second major surface comprises a first radius of curvature of 500 mm or greater, wherein, when an impacter having a mass of 6.8 kg impacts the first major surface at an impact velocity of 5.35 mis to 6.69 mis, the deceleration of the impacter is 120 g (g-force) or less; and wherein at least one edge region of the glass substrate (140, 150) is strengthened for improved edge impact performance.