mhurhangee/ep-ind-claims huggingface dataset:
Articulating shaft for a steerable catheter system, the shaft (100, 200) comprising: a tubular body (114, 214) with a longitudinal central axis, the tubular body (114, 214) having at least one sealed lumen (106, 206) with a distal opening and a proximal opening, and a plurality of wire support elements (110, 210) for supporting at least one actuating wire, wherein each of the wire support elements (110, 210) comprise at least one feed-through opening (112, 212) for receiving the actuating wire, wherein two adjacent wire support elements (110, 210) are separated from each other in an axial direction by a slot (118, 218), and wherein the body (114, 214) and the wire support elements (110, 210) are integrally formed from a single piece, wherein each wire support element (110, 210) comprises at least one bracket, which is separated from the body (114, 214) by a void (116, 216), and wherein the feed-through opening (112, 212) is arranged at the bracket. a tubular body (114, 214) with a longitudinal central axis, the tubular body (114, 214) having at least one sealed lumen (106, 206) with a distal opening and a proximal opening, and a plurality of wire support elements (110, 210) for supporting at least one actuating wire, wherein each of the wire support elements (110, 210) comprise at least one feed-through opening (112, 212) for receiving the actuating wire, wherein two adjacent wire support elements (110, 210) are separated from each other in an axial direction by a slot (118, 218), and wherein the body (114, 214) and the wire support elements (110, 210) are integrally formed from a single piece, wherein each wire support element (110, 210) comprises at least one bracket, which is separated from the body (114, 214) by a void (116, 216), and wherein the feed-through opening (112, 212) is arranged at the bracket.
A method, executable by a computing device, the method comprising: receiving a basic input output system (BIOS) policy change; authorizing the BIOS policy change; and upon the authorization of the BIOS policy change, storing a first copy of the BIOS policy change in a first memory (104, 204) accessible by a central processing unit (102, 202) and transmitting a second copy of the BIOS policy change for storage in a second memory (116, 216) electrically isolated from the central processing unit, wherein if the BIOS policy change fails the authorization, the BIOS policy change is not stored in the first memory and the second memory. receiving a basic input output system (BIOS) policy change; authorizing the BIOS policy change; and upon the authorization of the BIOS policy change, storing a first copy of the BIOS policy change in a first memory (104, 204) accessible by a central processing unit (102, 202) and transmitting a second copy of the BIOS policy change for storage in a second memory (116, 216) electrically isolated from the central processing unit, wherein if the BIOS policy change fails the authorization, the BIOS policy change is not stored in the first memory and the second memory.
An alloyed hot-dip galvanized steel sheet, which is a steel sheet comprising, in mass%, C: from 0.10 to 0.4%, Si: from 0.01 to 0.5%, Mn: from 1.0 to 3.0%, O: 0.006% or less, P: 0.04% or less, S: 0.01% or less, Al: from 0.1 to 3.0%, N: 0.01% or less, and optionally one member or two or more members of, in mass%, Cr: from 0.05 to 1.0%, Ni: from 0.05 to 1.0%, Cu: from 0.05 to 1.0%, Nb: from 0.005 to 0.3%, Ti: from 0.005 to 0.3%, V: from 0.005 to 0.5%, B: from 0.0001 to 0.01%, Ca: from 0.0005 to 0.04%, Mg: from 0.0005 to 0.04%, La: from 0.0005 to 0.04%, Ce: from 0.0005 to 0.04%, and Y: from 0.0005 to 0.04%, with the balance being Fe and unavoidable impurities, wherein the structure of the steel sheet further comprises, in terms of volume fraction, 40% or more of the total content of bainite and martensite, from 8 to 60% of retained austenite, and less than 40% of ferrite, with the balance being an unavoidable structure, and alloying hot-dip galvanization is applied to the steel sheet surface; wherein the total thickness of the thickness Tγ1 of Γ1 layer and the thickness Tγ of Γ layer in the alloyed hot-dip galvanized layer is 2 μm or less and the ratio (Tγ1/Tγ) of thickness between Γ1 phase and Γ phase is 1 or less; and the ratio {(Tζ+Tδ)/(Tγ1+Tγ)} of the total thickness of thickness Tζ of ζ layer and thickness Tδ of δ layer in the alloyed hot-dip galvanized layer to the total thickness of Γ1 layer and Γ layer is from 1.5 to 90.
An exhaust system comprising a catalyst article and a means of introducing NH 3 into the exhaust gas or forming NH 3 in the exhaust gas, the catalyst article comprising a substrate comprising an inlet end and an outlet end, a first zone and a second zone, where the first zone comprises an ammonia slip catalyst comprising: (i) an ammonia oxidation catalyst comprising a platinum group metal and (ii) a first SCR catalyst comprising a metal exchange molecular sieve, vanadium or a base metal, and the second zone comprises a second catalyst selected from the group consisting of a diesel oxidation catalyst, a diesel exotherm catalyst, a catalyzed soot filter, a NOx absorber, a selective catalytic reduction/passive NOx adsorber (SCR/PNA), a cold-start catalyst or a three-way catalyst, where the first zone is located upstream of the gas flow relative to the second zone, and wherein the ammonia slip catalyst is positioned at the inlet end within the exhaust gas flow and the second catalyst is positioned at the outlet end, wherein the exhaust system further comprises a second SCR catalyst located between the ammonia oxidation catalyst and the second catalyst. where the first zone comprises an ammonia slip catalyst comprising: (i) an ammonia oxidation catalyst comprising a platinum group metal and (ii) a first SCR catalyst comprising a metal exchange molecular sieve, vanadium or a base metal, (i) an ammonia oxidation catalyst comprising a platinum group metal and (ii) a first SCR catalyst comprising a metal exchange molecular sieve, vanadium or a base metal, and the second zone comprises a second catalyst selected from the group consisting of a diesel oxidation catalyst, a diesel exotherm catalyst, a catalyzed soot filter, a NOx absorber, a selective catalytic reduction/passive NOx adsorber (SCR/PNA), a cold-start catalyst or a three-way catalyst, where the first zone is located upstream of the gas flow relative to the second zone, and wherein the ammonia slip catalyst is positioned at the inlet end within the exhaust gas flow and the second catalyst is positioned at the outlet end, wherein the exhaust system further comprises a second SCR catalyst located between the ammonia oxidation catalyst and the second catalyst.
A fuel manifold and fuel injector arrangement comprising a fuel manifold and at least one fuel injector, the at least one fuel injector comprising a first fuel nozzle and a second fuel nozzle, the fuel manifold comprising at least one fuel pipe segment, each fuel pipe segment comprising an intermediate pipe and an inner pipe arranged within the intermediate pipe, wherein there are second interconnecting structures connecting the intermediate pipe and the inner pipe, the chamber between the intermediate pipe and the inner pipe being fluidly connected to a second fuel supply, the chamber within the inner pipe being fluidly connected to a first fuel supply, and the second fuel nozzle being fluidly connected to the chamber between the intermediate pipe and the inner pipe and the first fuel nozzle being fluidly connected to the chamber within the inner pipe, characterised in that each fuel pipe segment comprises an outer pipe, the intermediate pipe being arranged within the outer pipe, a vacuum or a thermally insulating medium being provided in a chamber defined between the outer pipe and the intermediate pipe, wherein there are first interconnecting structures connecting the outer pipe and the intermediate pipe; and the outer pipe, the intermediate pipe and the inner pipe comprise a single piece.
A driving force control method for a hybrid vehicle equipped with an internal combustion engine, a driving force transmission mechanism for transmitting driving force of the internal combustion engine to drive wheels, and an electric motor coupled to the internal combustion engine and capable of outputting driving force to the driving force transmission mechanism, the driving force control method comprising the steps of identifying a vehicle acceleration of the vehicle; estimating an average torque output by the internal combustion engine; estimating a torque fluctuation component of the torque output by the internal combustion engine; setting a countertorque for suppressing the estimated torque fluctuation component; and controlling the electric motor to output the set countertorque, wherein the step of setting a countertorque includes a sub-step of, under a condition that the average torque output by the internal combustion engine and an engine speed of the internal combustion engine are constant, setting the countertorque such that, as an absolute value of the vehicle acceleration becomes smaller, an absolute value of the countertorque becomes larger, characterized in that the step of setting a countertorque includes a sub-step of, under a condition that the engine speed of the internal combustion engine is constant, when the average torque output by the internal combustion engine is in the range of greater than a given value that a driving force from the internal combustion engine balances to a traveling resistance of the vehicle, setting the countertorque such that, as the average torque output by the internal combustion engine becomes larger, the absolute value of the countertorque becomes smaller. identifying a vehicle acceleration of the vehicle; estimating an average torque output by the internal combustion engine; estimating a torque fluctuation component of the torque output by the internal combustion engine; setting a countertorque for suppressing the estimated torque fluctuation component; and controlling the electric motor to output the set countertorque, wherein the step of setting a countertorque includes a sub-step of, under a condition that the average torque output by the internal combustion engine and an engine speed of the internal combustion engine are constant, setting the countertorque such that, as an absolute value of the vehicle acceleration becomes smaller, an absolute value of the countertorque becomes larger, characterized in that the step of setting a countertorque includes a sub-step of, under a condition that the engine speed of the internal combustion engine is constant, when the average torque output by the internal combustion engine is in the range of greater than a given value that a driving force from the internal combustion engine balances to a traveling resistance of the vehicle, setting the countertorque such that, as the average torque output by the internal combustion engine becomes larger, the absolute value of the countertorque becomes smaller.
A coating material in laminate form, intended in an insulation system for installation elements such as pipes, containers and ventilation ducts, which insulation system has a surface that the coating material must cover, characterized in that it comprises - a first outer layer made of metal foil, for example an aluminum foil, having a thickness within the 20 to 100 μm and more preferably 30 to 60 μm range, - a plastic layer placed between the metal foil first layer and the surface of the insulation system, - a thermoplastic tie layer connecting said coating material to said insulation system, the melting point of said thermoplastic tie layer being below the melting point of said plastic layer. - a first outer layer made of metal foil, for example an aluminum foil, having a thickness within the 20 to 100 μm and more preferably 30 to 60 μm range, - a plastic layer placed between the metal foil first layer and the surface of the insulation system, - a thermoplastic tie layer connecting said coating material to said insulation system, the melting point of said thermoplastic tie layer being below the melting point of said plastic layer.
A motor vehicle comprising a powertrain belonging to a suspended engine architecture, and also a reinforcement part designated a cradle of transverse orientation with respect to a longitudinal extension direction of the vehicle, said cradle being positioned between said powertrain and an apron ensuring a separation between said powertrain and a passenger compartment of the vehicle, the vehicle further comprising a system for holding back the powertrain in the event of impact ensuring a mechanical connection between said powertrain and said cradle, said holding-back system comprising at least two cables each connected on the one hand to said powertrain and on the other hand to said cradle, each cable being held at each of its ends by a cable clamp mounted on a support, said support being intended to be fixed, according to its position, to said cradle or to said powertrain.
Packing spacer for washing machines, of the type provided with a plastic moulded monolithic structure composed of a cylindrical pin with enlarged head centrally provided with an axial hole for insertion of a screw, said packing spacer incorporating at least one basically C-shaped flexible strap (3, 4) at the sides of the enlarged head, with opening towards the tip of the pin, designed to be closed to hold a rubber hose and/or electrical cable; said at least one strap (3, 4) being provided with closing points basically aligned with the front side of the enlarged head, characterised in that the closing point of each strap (3, 4) is situated at the end of a corresponding wing (3a, 4a) that protrudes laterally from the enlarged head, said wing (3a, 4a) being provided with a retention tooth (3b, 4b) designed to be firmly coupled with a corresponding fixing means (3e, 4e) provided at the free end of the strap (3, 4).
A multi-wavelength optical transmitting module comprising: a housing having a first coupling hole and a second coupling hole respectively formed in opposite surfaces thereof; an optical output block coupled to the first coupling hole of the housing, connected to an optical signal connector, and comprising a first lens, wherein part of the optical output block is inserted into the first coupling hole; an optical transmitting block (130, 230, 430) coupled to the second coupling hole of the housing, connected to an electrical signal connector, and comprising a plurality of transmitting devices (131a,..., 131d) which respectively output light having different wavelengths and are arranged parallel to the optical output block, and a plurality of second lenses (132a,..., 132d) which are arranged on a light output side of the transmitting devices (131a,..., 131d) to correspond respectively to the transmitting devices (131a,..., 131d), wherein part of the optical transmitting block is inserted into the second coupling hole; and an optical multiplexer block (140, 240, 340) disposed within the housing, multiplexing optical signals of multiple wavelengths, which were output from the transmitting devices (131a,..., 131d) and pass through the second lenses (132a,..., 132d), and transmitting the multiplexed optical signals to the optical output block, wherein the optical output block, the optical transmitting block (130, 230, 430) and the optical MUX block (140, 240, 340) are aligned on a block-by-block basis. a housing having a first coupling hole and a second coupling hole respectively formed in opposite surfaces thereof; an optical output block coupled to the first coupling hole of the housing, connected to an optical signal connector, and comprising a first lens, wherein part of the optical output block is inserted into the first coupling hole; an optical transmitting block (130, 230, 430) coupled to the second coupling hole of the housing, connected to an electrical signal connector, and comprising a plurality of transmitting devices (131a,..., 131d) which respectively output light having different wavelengths and are arranged parallel to the optical output block, and a plurality of second lenses (132a,..., 132d) which are arranged on a light output side of the transmitting devices (131a,..., 131d) to correspond respectively to the transmitting devices (131a,..., 131d), wherein part of the optical transmitting block is inserted into the second coupling hole; and an optical multiplexer block (140, 240, 340) disposed within the housing, multiplexing optical signals of multiple wavelengths, which were output from the transmitting devices (131a,..., 131d) and pass through the second lenses (132a,..., 132d), and transmitting the multiplexed optical signals to the optical output block, wherein the optical output block, the optical transmitting block (130, 230, 430) and the optical MUX block (140, 240, 340) are aligned on a block-by-block basis.
A panel processing method of processing a panel that uses a honeycomb core, comprising: - placing a bottom plate on a bottom portion of an embedding hole which is a hole formed in the honeycomb core and in which an insert is to be embedded, - applying a sealer for closing a gap between a side portion of the bottom plate and a wall surface of the honeycomb core to an upper surface of the bottom plate, and - pressing a pushing plate against the sealer so that the sealer protrudes into the gap, - applying a temporary fixing adhesive to an upper surface of the pushing plate, - inserting an insert in the embedded hole, - injecting a filler from an upper portion of the insert, wherein the filler is an adhesive utilised for fixing the insert to the embedding hole. - placing a bottom plate on a bottom portion of an embedding hole which is a hole formed in the honeycomb core and in which an insert is to be embedded, - applying a sealer for closing a gap between a side portion of the bottom plate and a wall surface of the honeycomb core to an upper surface of the bottom plate, and - pressing a pushing plate against the sealer so that the sealer protrudes into the gap, - applying a temporary fixing adhesive to an upper surface of the pushing plate, - inserting an insert in the embedded hole, - injecting a filler from an upper portion of the insert, wherein the filler is an adhesive utilised for fixing the insert to the embedding hole.
A well system comprising a bottom hole assembly comprising a plurality of bottom hole assembly modules (101a, 101b) configured to be coupled to each other end-to-end without requiring rotational movement, wherein the bottom hole assembly is configured to be installed within the well one bottom hole assembly module at a time, and wherein each bottom hole assembly module comprises an end configured to reversibly couple to a setting tool, the setting tool configured to position each of the bottom hole assembly modules within the well; and a pipe ram, a slip ram, or a variable bore ram positioned below a barrier of a well, the ram configured to hold the bottom hole assembly at an uphole end of the bottom hole assembly to secure the bottom hole assembly within the well. a bottom hole assembly comprising a plurality of bottom hole assembly modules (101a, 101b) configured to be coupled to each other end-to-end without requiring rotational movement, wherein the bottom hole assembly is configured to be installed within the well one bottom hole assembly module at a time, and wherein each bottom hole assembly module comprises an end configured to reversibly couple to a setting tool, the setting tool configured to position each of the bottom hole assembly modules within the well; and a pipe ram, a slip ram, or a variable bore ram positioned below a barrier of a well, the ram configured to hold the bottom hole assembly at an uphole end of the bottom hole assembly to secure the bottom hole assembly within the well.
System for producing cryptographic material, with a crypto-material server and a developer module, wherein the crypto-material server comprises at least one crypto-material generator and a crypto-material distributor, wherein the crypto-material generator is arranged to generate cryptographic material using specifications (SPEC) presettable via the developer module, characterised in that the crypto-material server has a receiving part of a specification interface and the developer module has a corresponding transmitting part of the specification interface, which can be coupled directly or indirectly for the secure transmission of data, wherein the developer module has a user interface arranged for an input of the specifications (SPEC) in abstract form or can be coupled directly or indirectly to such a user interface, and wherein a transformation module is provided for the automatic transformation of the input specifications (SPEC) into a syntax of the crypto-material generator. characterised in that the crypto-material server has a receiving part of a specification interface and the developer module has a corresponding transmitting part of the specification interface, which can be coupled directly or indirectly for the secure transmission of data, wherein the developer module has a user interface arranged for an input of the specifications (SPEC) in abstract form or can be coupled directly or indirectly to such a user interface, and wherein a transformation module is provided for the automatic transformation of the input specifications (SPEC) into a syntax of the crypto-material generator.
A computer-implemented method, comprising: receiving, by a computing device, speech audio samples; receiving, by a computing device, noise samples; the method being characterised by further comprising: for each frequency band of multiple different frequency bands: determining, by the computing device, a noise energy level of each noise sample and a speech audio energy level of each speech audio sample for the frequency band; generating, by the computing device, noisy speech audio samples by combining each noise sample and each speech audio sample for the frequency band; and training, by the computing device and using machine learning, a model for the frequency band using the noise energy level of each noise sample, the speech audio energy level of each speech audio sample, and the noisy speech audio samples, wherein the model for the frequency band is trained to determine a speech audio energy level of input audio data and a noise energy level of the input audio data. receiving, by a computing device, speech audio samples; receiving, by a computing device, noise samples; the method being characterised by further comprising: for each frequency band of multiple different frequency bands: determining, by the computing device, a noise energy level of each noise sample and a speech audio energy level of each speech audio sample for the frequency band; generating, by the computing device, noisy speech audio samples by combining each noise sample and each speech audio sample for the frequency band; and training, by the computing device and using machine learning, a model for the frequency band using the noise energy level of each noise sample, the speech audio energy level of each speech audio sample, and the noisy speech audio samples, wherein the model for the frequency band is trained to determine a speech audio energy level of input audio data and a noise energy level of the input audio data. determining, by the computing device, a noise energy level of each noise sample and a speech audio energy level of each speech audio sample for the frequency band; generating, by the computing device, noisy speech audio samples by combining each noise sample and each speech audio sample for the frequency band; and training, by the computing device and using machine learning, a model for the frequency band using the noise energy level of each noise sample, the speech audio energy level of each speech audio sample, and the noisy speech audio samples, wherein the model for the frequency band is trained to determine a speech audio energy level of input audio data and a noise energy level of the input audio data.