mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an austenitic or ferritic stainless steel from a first iron melt, which is fed to a converter designed for metallurgical oxidising and which has been smelted from a raw or charge material with high phosphorous content, the melt having a low content of chromium and a phosphorous content of more than 0.05 weight % of phosphorous, in an oxidising process comprising two treatment stages, characterised in that the first iron melt is subjected in the converter in a first treatment stage of the oxidising process to a dephosphorising, desiliconising and decarburising treatment with subsequent intermediate slag tapping off for removal of phosphorous, and subsequently a molten iron-chromium (FeCr) alloy, with a chromium content sufficient for producing the stainless steel, is fed as a second ion melt to the metallurgically treated first iron melt in the converter in a second treatment stage of the oxidising process and a stainless steel melt is produced from the resulting mixture of the iron melts by metallurgical oxidising.
Device for stripping a cable, wherein the device has at least one support roller arrangement and one work wheel arrangement, wherein the end of the cable to be stripped can be clamped with the application of a pressure force between the work wheel arrangement and the support roller arrangement, wherein the unit made up of the work wheel arrangement and the support roller arrangement can be driven to rotate around the cable and to roll off thereon, wherein the work wheel arrangement has at least one rolling wheel and at least one cutting wheel, which roll off along a cutting region on the circumference of the cable, wherein the rolling wheel has a blunter edge geometry than the cutting wheel, and that the radially outer edge of the rolling wheel is arranged closer to the axis of rotation than the radially outer edge of the cutting wheel.
Anchor rail for fixing fastening means, having a first rail part and a second rail part, which are connected to one another and on each of which anchor webs are formed, wherein a channel-shaped receptacle for a head section of a fastening means is formed between a first wall of the first rail part and a second wall of the second rail part, and an inwardly projecting web is provided on the first wall and an inwardly projecting web is provided on the second wall, and the inwardly projecting webs overlap the channel-shaped receptacle on the edge side, characterized in that an outwardly projecting support web projects at least in sections on the first wall and/or the second wall opposite the inwardly projecting web.
A power management module for an electrical winch system of a vehicle, the power management module comprising: an overload interrupt module with means for determining an operating current of the electrical winch system and means for providing a first interrupt signal when said operating current is greater than a threshold current, wherein said means for determining said operating current includes a toroid that, to detect said operating current, encircles a wire that provides said operating current from a power source of said vehicle; a low voltage interrupt module with means for determining a voltage of said power source and means for providing a second interrupt signal when said voltage is less than a threshold voltage; a printed circuit board PCB including a microcontroller unit, wherein said microcontroller unit is included as part of the low voltage interrupt module; a housing (30,32), wherein each of said overload interrupt module, said toroid, said low voltage interrupt module and said PCB are located within said housing (30, 32); characterized in that, said PCB has an annular shape and encircles said wire and said toroid; said PCB includes a hall effect sensor located thereon; said toroid includes a circular ring-shaped magnetic core having an air gap, wherein said hall effect sensor is located within said air gap; said hall effect sensor and microcontroller unit are included as part of the overload interrupt module. an overload interrupt module with means for determining an operating current of the electrical winch system and means for providing a first interrupt signal when said operating current is greater than a threshold current, wherein said means for determining said operating current includes a toroid that, to detect said operating current, encircles a wire that provides said operating current from a power source of said vehicle; a low voltage interrupt module with means for determining a voltage of said power source and means for providing a second interrupt signal when said voltage is less than a threshold voltage; a printed circuit board PCB including a microcontroller unit, wherein said microcontroller unit is included as part of the low voltage interrupt module; a housing (30,32), wherein each of said overload interrupt module, said toroid, said low voltage interrupt module and said PCB are located within said housing (30, 32); characterized in that, said PCB has an annular shape and encircles said wire and said toroid; said PCB includes a hall effect sensor located thereon; said toroid includes a circular ring-shaped magnetic core having an air gap, wherein said hall effect sensor is located within said air gap; said hall effect sensor and microcontroller unit are included as part of the overload interrupt module.
DC current interruption system able to open a DC line with inductive behaviour, comprising a primary mechanical breaker, a secondary mechanical breaker and an electronic overvoltage protection circuit (B, B1, B2) comprising at least one transistor, characterised in that it further comprises an electronic opening system (14, 72, 76) comprising a passive circuit (22, 74, 78) able to auto-bias the electronic protection circuit (B, B1, B2) upon the opening of said primary mechanical breaker, so as to trigger a switching of said at least one transistor (M1, M2, IG1, IG2) making it possible to limit the voltage and the current in the DC line, with a total interruption of said DC line being obtained by subsequent opening of said secondary mechanical breaker, characterised in that said electronic protection circuit comprises a plurality of field effect transistors (M1, M2) mounted in parallel, able to switch to an ohmic mode in a first step after opening of said primary breaker, then to a breakdown mode in a second step when the voltage reaches a predetermined value (Vbr), and in that said electronic protection circuit (B, B1) further comprises a breakdown balancing system (24, 79), making it possible to operate in breakdown mode quasi-simultaneously said plurality of field effect transistors.
Electrical circuit which contains at least two modules which are similar to one another and each have at least one electrical energy store and at least one electronic switch which permits electrical connections of the at least one electrical energy store to the energy stores of other modules to be changed, wherein the electrical circuit also contains at least one voltage-measuring device which is configured to measure electrical voltages, generated by a group of a plurality of modules, in at least two different switched states of the modules, and to carry out automatic determination of the voltages of the electrical energy stores of the individual modules, wherein the at least two modules are considered to be similar if they can bring about at least two identical switched states which each define how the respective energy store is connected to the energy stores of the other modules in an electrically conductive fashion, wherein the group of modules contains at least two modules of the circuit, characterized in that the electrical circuit is configured to combine the voltages V(i, t) to be determined of the electrical energy stores of the individual modules i as coordinates in a vector V(t) and to map them onto an electrical voltage V unit (s(t), currently produced by the group of modules i together, at a respective time t and in an accordingly present switching state s(t) of the modules, which is depicted in a matrix M(s(t)), at the respective time t and to specify them by means of resolution according to V(t): V unit s t = M s t V t, wherein the electrical circuit is additionally configured so as, when specifying the voltages, to assume that the respective voltages of the electrical energy stores of the individual modules change only insignificantly at the various times, and to combine a series of different times t such that the voltages to be specified are regarded as constant for this time.
Sole (100; 200) for a shoe, in particular a sports shoe, comprising: a. a midsole (110; 210) comprising randomly arranged particles of an expanded material, in particular expanded thermoplastic polyurethane or expanded polyether-block-amide; and b. an outsole, wherein c. the sole (100; 200) comprises a first partial region and a second partial region, wherein d. the midsole (110; 210) comprises a greater stiffness in the first partial region than in the second partial region, wherein e. when treading down with the sole (100; 200) on a ground, the outsole comprises a larger contact area with the ground in the first partial region than in the second partial region, wherein f. the outsole comprises a plurality of first protrusions in the first partial region of the sole which each comprise a flattened surface, and wherein g. the outsole comprises a plurality of second protrusions in the second partial region which provide a smaller contact area with the ground. a. a midsole (110; 210) comprising randomly arranged particles of an expanded material, in particular expanded thermoplastic polyurethane or expanded polyether-block-amide; and b. an outsole, wherein c. the sole (100; 200) comprises a first partial region and a second partial region, wherein d. the midsole (110; 210) comprises a greater stiffness in the first partial region than in the second partial region, wherein e. when treading down with the sole (100; 200) on a ground, the outsole comprises a larger contact area with the ground in the first partial region than in the second partial region, wherein f. the outsole comprises a plurality of first protrusions in the first partial region of the sole which each comprise a flattened surface, and wherein g. the outsole comprises a plurality of second protrusions in the second partial region which provide a smaller contact area with the ground.
A fuel composition for internal combustion engines comprising, a major portion of an alcohol blended gasoline comprising (i) at least one alcohol selected from a group comprising of ethanol, butanol, and methanol in amount 5 to 90% and (ii) gasoline in amount of 95 to 10%; and a minor portion of a corrosion inhibitor formulation comprising i. a corrosion inhibitor, comprising a reaction product of (a) a fatty acid selected from a group comprising of oleic acid, linoleic acid, mystiric acid, stearic acid, palmitic acid and ricinoleic acid; and (b) an azomethine compound derived from a condensation reaction between a carbonyl compound and an amine compound; ii. a fatty acid oil or ester selected from a group comprising of castor oil, palm oil, soyabean oil, methyl soya ester; iii. a dispersing agent, wherein the dispersing agent is a sulfonate compound; and iv. a viscosity reducing agent selected from a group comprising of ethanol, isopropanol, and propargyl alcohol, wherein the corrosion inhibitor formulation is present in the fuel composition in the range of 10 to 100 ppm. i. a corrosion inhibitor, comprising a reaction product of (a) a fatty acid selected from a group comprising of oleic acid, linoleic acid, mystiric acid, stearic acid, palmitic acid and ricinoleic acid; and (b) an azomethine compound derived from a condensation reaction between a carbonyl compound and an amine compound; ii. a fatty acid oil or ester selected from a group comprising of castor oil, palm oil, soyabean oil, methyl soya ester; iii. a dispersing agent, wherein the dispersing agent is a sulfonate compound; and iv. a viscosity reducing agent selected from a group comprising of ethanol, isopropanol, and propargyl alcohol,
A motor loss controller configured to: band-shift a motor frequency signal by a multiple of a fundamental frequency into a parsed sine component and a cosine component and multiply a feedback signal by each of the parsed sine component and the cosine component; perform integral control of a control value band-shifted sine component and a control value band-shifted cosine component, wherein the performing integral control is configured to at least one of eliminate or reduce a disturbance on an output of the motor loss controller by rejecting a DC disturbance in a band-shifted control value; inverse band-shift the sine component back to its original band; inverse band-shift the cosine component back to its original band; and sum the inverse band-shifted sine component and the inverse band-shifted cosine component together to result in a controller output; and characterized by being further configured to add phase compensation to the output inverse band shift, and wherein the feedback signal is a feedback current signal and comprises at least one of a d-axis component or a q-axis component and wherein the control value band-shifted sine component is created by subtracting the sine component of the band-shifted feedback signal from a control value, and wherein the control value band-shifted cosine component is created by subtracting the cosine component of the band-shifted feedback signal from the control value. band-shift a motor frequency signal by a multiple of a fundamental frequency into a parsed sine component and a cosine component and multiply a feedback signal by each of the parsed sine component and the cosine component; perform integral control of a control value band-shifted sine component and a control value band-shifted cosine component, wherein the performing integral control is configured to at least one of eliminate or reduce a disturbance on an output of the motor loss controller by rejecting a DC disturbance in a band-shifted control value; inverse band-shift the sine component back to its original band; inverse band-shift the cosine component back to its original band; and sum the inverse band-shifted sine component and the inverse band-shifted cosine component together to result in a controller output; and characterized by being further configured to add phase compensation to the output inverse band shift, and wherein the feedback signal is a feedback current signal and comprises at least one of a d-axis component or a q-axis component and wherein the control value band-shifted sine component is created by subtracting the sine component of the band-shifted feedback signal from a control value, and wherein the control value band-shifted cosine component is created by subtracting the cosine component of the band-shifted feedback signal from the control value.
Spring bridge for a spring bridge breathing bag plate system of a closed-circuit breathing apparatus, comprising a spring bridge carrier for arranging at least one spring element of a spring bridge breathing bag plate system and comprising at least one fastening element for holding the spring bridge on the closed-circuit breathing apparatus, wherein the at least one fastening element is a rotary element and/or sliding element for rotatably and/or slidably moving the spring bridge on and relative to the closed-circuit breathing apparatus, wherein the spring bridge is rotatable and/or slidable by means of the rotary element and/or the sliding element from a working position into an opening position (Ö) to release access to a breathing bag of the closed-circuit breathing apparatus, wherein the spring bridge remains fastened to the closed-circuit breathing apparatus when the spring bridge is in the opening position (Ö). wherein the at least one fastening element is a rotary element and/or sliding element for rotatably and/or slidably moving the spring bridge on and relative to the closed-circuit breathing apparatus, wherein the spring bridge is rotatable and/or slidable by means of the rotary element and/or the sliding element from a working position into an opening position (Ö) to release access to a breathing bag of the closed-circuit breathing apparatus, wherein the spring bridge remains fastened to the closed-circuit breathing apparatus when the spring bridge is in the opening position (Ö).
A method for surface preparation of a composite substrate comprising: (a) providing a composite substrate comprising reinforcing fibers impregnated with a curable matrix resin; (b) providing a resin-containing peel ply comprising a curable resin layer in which a removable woven fabric is embedded; (c) placing the resin-containing peel ply into contact with a surface of the composite substrate; and (d) co-curing the peel ply and the composite substrate; characterized in that in the curable resin layer of the resin-containing peel ply provided in step (b) additionally a non-removable textile carrier is embedded, wherein the non-removable textile carrier is in the form of a woven fabric, a knitted fabric or a nonwoven veil, and in that the method further comprises (e) removing the peel ply from the surface of the composite substrate such that the removable woven fabric is removed together with some peel ply's resin but the non-removable textile carrier and a film of residual resin remain on the composite substrate, thereby creating a modified surface on the composite substrate. (a) providing a composite substrate comprising reinforcing fibers impregnated with a curable matrix resin; (b) providing a resin-containing peel ply comprising a curable resin layer in which a removable woven fabric is embedded; (c) placing the resin-containing peel ply into contact with a surface of the composite substrate; and (d) co-curing the peel ply and the composite substrate; characterized in that in the curable resin layer of the resin-containing peel ply provided in step (b) additionally a non-removable textile carrier is embedded, wherein the non-removable textile carrier is in the form of a woven fabric, a knitted fabric or a nonwoven veil, and in that the method further comprises (e) removing the peel ply from the surface of the composite substrate such that the removable woven fabric is removed together with some peel ply's resin but the non-removable textile carrier and a film of residual resin remain on the composite substrate, thereby creating a modified surface on the composite substrate.
A data flow processing method, comprising: receiving, by a host, a priority list sent by the switch, wherein the priority list comprises priority values respectively corresponding to different priorities in a one-to-one corresponding manner; determining, by the host according to the priority list, a priority value of a priority corresponding to an application layer port corresponding to a first data flow to be sent to a switch; adding, by the host, the priority value of the priority corresponding to the application layer port to the first data flow to generate a second data flow that comprises the priority; and sending, by the host, the second data flow to the switch, so that the switch processes the second data flow according to the priority of the second data flow. receiving, by a host, a priority list sent by the switch, wherein the priority list comprises priority values respectively corresponding to different priorities in a one-to-one corresponding manner; determining, by the host according to the priority list, a priority value of a priority corresponding to an application layer port corresponding to a first data flow to be sent to a switch; adding, by the host, the priority value of the priority corresponding to the application layer port to the first data flow to generate a second data flow that comprises the priority; and sending, by the host, the second data flow to the switch, so that the switch processes the second data flow according to the priority of the second data flow.
A polynucleotide selected among the following group: a) a group B Streptococcus gene encoding a Gbs2018 surface protein of a strain of the ST-17 clone, wherein said gene comprises a nucleic acid sequence consisting of the sequence S10 of SEQ ID NO 5 and further comprises a domain consisting in at least one nucleic acid sequences consisting of at least one of the sequence S11 a of SEQ ID NO 13 and/or the sequence S11 b of SEQ ID NO 15; b) a polynucleotide hybridizing in stringent conditions with the gene of a); including hybridizing with the S10 segment whose sequence consists of SEQ ID NO 5 and the domain consisting in at least one nucleic acid sequence consisting of at least one of the sequence S11 a of SEQ ID NO 13 and/or S11 b of SEQ ID NO 15; c) a fragment derived from a group B Streptococcus gene defined in a) wherein such fragment comprises the S10 segment consisting of SEQ ID NO 5 and/or the S11 a segment whose sequence consists of SEQ ID NO 13 and/or the S11 b segment whose sequence consists of SEQ ID NO 15, and which is suitable for use in a process for the specific detection of a GBS strain of the ST-17 clone; d) a polynucleotide which is complementary to said gene defined in a), or to said fragment defined in c) and which is suitable for use in a process for the specific detection of a GBS strain of the ST-17 clone or codes for a polypeptide comprising epitopes of said Gbs2018 surface protein; e) with the proviso that the polynucleotide of claims 1a) to 1d) does not consist in the polynucleotide which consists of the coding sequence of SEQ ID NO 1. a) a group B Streptococcus gene encoding a Gbs2018 surface protein of a strain of the ST-17 clone, wherein said gene comprises a nucleic acid sequence consisting of the sequence S10 of SEQ ID NO 5 and further comprises a domain consisting in at least one nucleic acid sequences consisting of at least one of the sequence S11 a of SEQ ID NO 13 and/or the sequence S11 b of SEQ ID NO 15; b) a polynucleotide hybridizing in stringent conditions with the gene of a); including hybridizing with the S10 segment whose sequence consists of SEQ ID NO 5 and the domain consisting in at least one nucleic acid sequence consisting of at least one of the sequence S11 a of SEQ ID NO 13 and/or S11 b of SEQ ID NO 15; c) a fragment derived from a group B Streptococcus gene defined in a) wherein such fragment comprises the S10 segment consisting of SEQ ID NO 5 and/or the S11 a segment whose sequence consists of SEQ ID NO 13 and/or the S11 b segment whose sequence consists of SEQ ID NO 15, and which is suitable for use in a process for the specific detection of a GBS strain of the ST-17 clone; d) a polynucleotide which is complementary to said gene defined in a), or to said fragment defined in c) and which is suitable for use in a process for the specific detection of a GBS strain of the ST-17 clone or codes for a polypeptide comprising epitopes of said Gbs2018 surface protein; e) with the proviso that the polynucleotide of claims 1a) to 1d) does not consist in the polynucleotide which consists of the coding sequence of SEQ ID NO 1.