mhurhangee/ep-ind-claims huggingface dataset:
Electromagnetic flowmeter comprising - a measuring tube designed to conduct a medium, - a unit for generating magnetic fields and - at least two measuring electrodes designed to measure a measuring voltage generated by induction in the medium, - a conductive layer applied selectively on the inside of the measuring tube to form a galvanic contact with the medium and to form a grounding electrode, wherein the conductive layer has an annular shape, wherein the conductive layer has an annular thickness d and an annular width b, characterized in that the measuring tube has a length l and a nominal diameter D with D ≥ DN300, such that b ≥ c - l and 0.05 ≤ c ≤ 0.25 applies. - a measuring tube designed to conduct a medium, - a unit for generating magnetic fields and - at least two measuring electrodes designed to measure a measuring voltage generated by induction in the medium, - a conductive layer applied selectively on the inside of the measuring tube to form a galvanic contact with the medium and to form a grounding electrode, wherein the conductive layer has an annular shape,
Process for the production of balsamic vinegar, comprising the steps of: - providing a first must obtained from pressed grapes; - concentrating the first must, thereby obtaining a concentrated must; - blending the concentrated must with wine vinegar, thereby obtaining a blend or blend precursor that will be subjected to refinement and/or ageing in order to become balsamic vinegar, characterized in that the step of concentrating the must is carried out in cold conditions, at about ambient temperature, wherein the step of concentrating the must is carried out in high vacuum. - providing a first must obtained from pressed grapes; - concentrating the first must, thereby obtaining a concentrated must; - blending the concentrated must with wine vinegar, thereby obtaining a blend or blend precursor that will be subjected to refinement and/or ageing in order to become balsamic vinegar,
Plug connection, having a plug connector and a mating plug connector, it being possible for the plug connector and the mating plug connector to be plugged together to form the plug connection, the plug connector having a contact carrier with at least one contact chamber for receiving a contact partner, and the contact carrier being inserted into an outer housing of the plug connector, it being possible for each contact partner to be primarily locked in its contact chamber, and a secondary latch for a secondary locking action of the contact partners in their contact chambers being provided, the secondary latch being formed by a longitudinal web, at the two ends of which in each case one latching element which interacts with the contact carrier is arranged, characterized in that at least one force absorption web is arranged on the upper side of the longitudinal web, to which force absorption web a downwardly acting forces applied during locking operation of the secondary latch.
A fluid circuit selection system for a fluid circuit including at least a cylinder and a plurality of instruments connected to the cylinder, the fluid circuit selection system comprising: a cylinder selection section configured to select the cylinder; a valve selection section configured to select, by an input operation, a valve included in the plurality of instruments; a silencer selection section configured to select, by the input operation, a silencer included in the plurality of instruments; a database including information about combinations of the plurality of instruments except for the valve and the silencer registered in advance at least in order of size; a combination selection section (124A, 124B) configured to read the information about the combinations of the plurality of instruments from the database in order of size to select the instruments; a reselection section configured to reselect the instruments of larger sizes in a case where a stroke time (Ts) obtained from a simulation performed using part of the instruments selected by the combination selection section (124A, 124B) exceeds a preset maximum stroke time (Tmax) or in a case where a current working pressure (Pr) after a return process of the cylinder obtained from the simulation is less than or equal to a minimum working pressure (Pmin). a cylinder selection section configured to select the cylinder; a valve selection section configured to select, by an input operation, a valve included in the plurality of instruments; a silencer selection section configured to select, by the input operation, a silencer included in the plurality of instruments; a database including information about combinations of the plurality of instruments except for the valve and the silencer registered in advance at least in order of size; a combination selection section (124A, 124B) configured to read the information about the combinations of the plurality of instruments from the database in order of size to select the instruments; a reselection section configured to reselect the instruments of larger sizes in a case where a stroke time (Ts) obtained from a simulation performed using part of the instruments selected by the combination selection section (124A, 124B) exceeds a preset maximum stroke time (Tmax) or in a case where a current working pressure (Pr) after a return process of the cylinder obtained from the simulation is less than or equal to a minimum working pressure (Pmin).
A silk fibroin composite comprising: a plurality of coupled layers wherein at least one of the coupled layers includes a composite matrix of at least one non-silk polymer and silk fibroin material derived at least in part from expression of one or more spider silk genes within at least one living organism, the plurality of coupled layers comprising: at least one backing or surface layer, the at least one backing or surface layer including a polymer having a fiber reinforcement including spider silk fibers and carbon fibers; a honeycomb-like core including a plurality of cells, the honeycomb-like core coupled to the at least one backing or surface layer with a fiber-reinforced polymer so as to close openings of the cells, wherein the fiber-reinforced polymer is a phenolic resin matrix reinforced with spider silk fibers and carbon fibers. at least one backing or surface layer, the at least one backing or surface layer including a polymer having a fiber reinforcement including spider silk fibers and carbon fibers; a honeycomb-like core including a plurality of cells, the honeycomb-like core coupled to the at least one backing or surface layer with a fiber-reinforced polymer so as to close openings of the cells, wherein the fiber-reinforced polymer is a phenolic resin matrix reinforced with spider silk fibers and carbon fibers.
A method of identifying and de-duplicating records in a database containing a plurality of entity representation records, each entity representation record including a unique record identifier and a plurality of fields, each field capable of containing a field value, the method comprising: for each record of the plurality of entity representation records, determining a field-level deletion neighborhood for two or more field combinations of the record, comprising: determining field hash values; creating field permutations, each field permutation omitting at least one of the plurality of fields; determining a combined record hash value for each field permutation; and associating each combined record hash value to the unique entity identifier; for each entity representation record: searching other entity representation records for matching combined record hash values; and assigning one or more of a unique entity identifier and a duplicate entity identifier to the other entity representation records having the matching combined record hash values;, wherein the method further comprises determining a field string-level deletion neighborhood for each field value, wherein determining the field string-level deletion neighborhood comprises determining one or more field string fragments. for each record of the plurality of entity representation records, determining a field-level deletion neighborhood for two or more field combinations of the record, comprising: determining field hash values; creating field permutations, each field permutation omitting at least one of the plurality of fields; determining a combined record hash value for each field permutation; and associating each combined record hash value to the unique entity identifier; determining field hash values; creating field permutations, each field permutation omitting at least one of the plurality of fields; determining a combined record hash value for each field permutation; and associating each combined record hash value to the unique entity identifier; for each entity representation record: searching other entity representation records for matching combined record hash values; and assigning one or more of a unique entity identifier and a duplicate entity identifier to the other entity representation records having the matching combined record hash values;, searching other entity representation records for matching combined record hash values; and assigning one or more of a unique entity identifier and a duplicate entity identifier to the other entity representation records having the matching combined record hash values;, wherein the method further comprises determining a field string-level deletion neighborhood for each field value, wherein determining the field string-level deletion neighborhood comprises determining one or more field string fragments.
A feed oil pipe comprising: a non-aluminized steel pipe member; a metal fitting made of an aluminized stainless steel sheet, the metal fitting being attached to the steel pipe member; and a gap structure defined between a position on an outer circumferential surface of the non-aluminized steel pipe member not in contact with a fuel and the metal fitting, the gap structure being exposed to a chloride environment, wherein the non-aluminized steel pipe member is made of a ferritic stainless steel consisting of, in mass%, at most 0.015% of C, at most 0.015% of N, 10.5% to 18.0% of Cr, 0.01% to 0.80% of Si, 0.01% to 0.80% of Mn, at most 0.050% of P, at most 0.010% of S, 0.010% to 0.100% of Al, at most 0.30% of Ti, and at most 0.30% of Nb, one or both of Ti and Nb being at least 0.03%, optionally one or both of 0.0002% to 0.0050% of B and 0.01% to 0.50% of Sn, and further optionally one or more of 0.01% to 0.3% of Mo, 0.01% to 0.5% of Cu, 0.01% to 0.5% of Ni, 0.005% to 0.5% of Sb, 0.005% to 0.5% of Zr, 0.005% to 0.5% of Co, 0.005% to 0.5% of W, 0.03% to 0.5% of V, and 0.001% to 0.05% of Ga, and a balance in a form of Fe and inevitable impurities, and wherein the stainless steel of the metal fitting has the same composition range as the ferritic stainless steel of the steel pipe member, the aluminized stainless steel sheet for the metal fitting has an Al-plating weight per unit area of 20 g/m 2 or more and 150 g/m 2 or less, and the metal fitting and the non-aluminized member are coated with a cation electrodeposition coating film having a thickness of 5 μm to 35 μm. a non-aluminized steel pipe member; a metal fitting made of an aluminized stainless steel sheet, the metal fitting being attached to the steel pipe member; and a gap structure defined between a position on an outer circumferential surface of the non-aluminized steel pipe member not in contact with a fuel and the metal fitting, the gap structure being exposed to a chloride environment, wherein the non-aluminized steel pipe member is made of a ferritic stainless steel consisting of, in mass%, at most 0.015% of C, at most 0.015% of N, 10.5% to 18.0% of Cr, 0.01% to 0.80% of Si, 0.01% to 0.80% of Mn, at most 0.050% of P, at most 0.010% of S, 0.010% to 0.100% of Al, at most 0.30% of Ti, and at most 0.30% of Nb, one or both of Ti and Nb being at least 0.03%, optionally one or both of 0.0002% to 0.0050% of B and 0.01% to 0.50% of Sn, and further optionally one or more of 0.01% to 0.3% of Mo, 0.01% to 0.5% of Cu, 0.01% to 0.5% of Ni, 0.005% to 0.5% of Sb, 0.005% to 0.5% of Zr, 0.005% to 0.5% of Co, 0.005% to 0.5% of W, 0.03% to 0.5% of V, and 0.001% to 0.05% of Ga, and a balance in a form of Fe and inevitable impurities, and wherein the stainless steel of the metal fitting has the same composition range as the ferritic stainless steel of the steel pipe member, the aluminized stainless steel sheet for the metal fitting has an Al-plating weight per unit area of 20 g/m 2 or more and 150 g/m 2 or less, and the metal fitting and the non-aluminized member are coated with a cation electrodeposition coating film having a thickness of 5 μm to 35 μm.
A process for obtaining an olefin by metathesis comprising feeding at least one stream comprising at least one olefin as starting material to at least one reactor comprising at least one main catalyst bed comprising a) at least one first catalyst component comprising a metathesis catalyst, and b) at least one second catalyst component comprising a catalyst for double bond isomerisation, whereby the first and second catalyst are physically mixed with each other, characterized in that - the at least one stream comprising at least one olefin as starting material is co-fed with hydrogen gas in a concentration range between 0.01 vol % and 0.2 vol% in respect to the total gas amount in the stream, and - the metathesis process is conducted in the at least one reactor at a pressure between 0.1 MPa and 3.0 MPa and at a temperature between 250°C and 300°C. a) at least one first catalyst component comprising a metathesis catalyst, and b) at least one second catalyst component comprising a catalyst for double bond isomerisation, whereby the first and second catalyst are physically mixed with each other, - the at least one stream comprising at least one olefin as starting material is co-fed with hydrogen gas in a concentration range between 0.01 vol % and 0.2 vol% in respect to the total gas amount in the stream, and - the metathesis process is conducted in the at least one reactor at a pressure between 0.1 MPa and 3.0 MPa and at a temperature between 250°C and 300°C.
A system for detecting a particle in a channel, comprising: a channel for comprising at least one particle dispersed in a medium, such that the at least one particle is moving from a first end of the channel to a second end of the channel; a source of electromagnetic radiation that illuminates at least a portion of the channel; a first line sensor configured to detect spectral information for identifying the at least one particle, wherein the first line sensor is positioned along a linear axis of the illuminated portion of the channel such that the first line sensor is substantially parallel to a direction of movement of the at least one particle through the channel; and a first optical system that focuses and aligns the illuminated portion of the channel to the first line sensor characterized in that: the system further comprises a second '2. line sensor positioned within the Z. region of illumination, wherein the second line sensor is disposed perpendicular to the linear axis of the channel to determine a position of the particle within the channel. a channel for comprising at least one particle dispersed in a medium, such that the at least one particle is moving from a first end of the channel to a second end of the channel; a source of electromagnetic radiation that illuminates at least a portion of the channel; a first line sensor configured to detect spectral information for identifying the at least one particle, wherein the first line sensor is positioned along a linear axis of the illuminated portion of the channel such that the first line sensor is substantially parallel to a direction of movement of the at least one particle through the channel; and a first optical system that focuses and aligns the illuminated portion of the channel to the first line sensor characterized in that: the system further comprises a second '2. line sensor positioned within the Z. region of illumination, wherein the second line sensor is disposed perpendicular to the linear axis of the channel to determine a position of the particle within the channel.
A tire failure detection device comprising: a steering angle sensor for sensing a steering angle; a yaw rate sensor for sensing a yaw rate; and a control unit, wherein the control unit calculates side-slip energy based on an output signal of the steering angle sensor and an output signal of the yaw rate sensor, characterized in that the control unit determines that a failure has occurred in a tire when the side-slip energy exceeds a first threshold. a steering angle sensor for sensing a steering angle; a yaw rate sensor for sensing a yaw rate; and a control unit, wherein the control unit calculates side-slip energy based on an output signal of the steering angle sensor and an output signal of the yaw rate sensor, characterized in that the control unit determines that a failure has occurred in a tire when the side-slip energy exceeds a first threshold.
Mould for the production of extrusion-blow-moulded products comprising at least three mould parts (2a, 2b, 3) delimiting a mould cavity, two of which parts are formed as outer moulds (2a, 2b) and one as a central mould, the outer moulds (2a, 2b) and the central mould being able to perform an opening and closing movement towards and away from one another, characterized in that the central mould is provided with component holders that can be moved in and out of this defined mould plane, and the movable component holders being arranged on a carrier that can be extended and retracted with respect to the central longitudinal plane of the central mould.
A computation device, comprising a storage unit, a conversion unit, an operation unit, and a controller unit, wherein: the storage unit comprises a cache and a register: the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit and to transmit a plurality of operation instructions to the operation unit, wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to a relationship between different data types in the first input data. the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit and to transmit a plurality of operation instructions to the operation unit, wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to a relationship between different data types in the first input data.
A process for producing propylene, the process comprising: at least partially metathesizing butene in a metathesizing reaction zone comprising a metathesis catalyst to form a metathesis reaction product, the metathesis catalyst comprising a mesoporous silica-alumina catalyst support impregnated with metal oxide having a mesoporous silica-alumina catalyst support comprising from 5 weight percent to 50 weight percent alumina; at least partially cracking the metathesis reaction product in a cracking reaction zone comprising a cracking catalyst to form a cracking reaction product, where the cracking catalyst comprises a MFI structured silica-containing catalyst and the cracking reaction product comprises propylene. at least partially metathesizing butene in a metathesizing reaction zone comprising a metathesis catalyst to form a metathesis reaction product, the metathesis catalyst comprising a mesoporous silica-alumina catalyst support impregnated with metal oxide having a mesoporous silica-alumina catalyst support comprising from 5 weight percent to 50 weight percent alumina; at least partially cracking the metathesis reaction product in a cracking reaction zone comprising a cracking catalyst to form a cracking reaction product, where the cracking catalyst comprises a MFI structured silica-containing catalyst and the cracking reaction product comprises propylene.
A certified communicating device (CCOJ) having received a certification guaranteeing the behaviour of the certified communicating device, the certified communicating device being adapted of being connected to at least one communication network, characterised in that a formal model (FMODEL) is associated with the certified communicating device, the formal model specifying activities (ACTVT) offered by the certified communicating device, parameters (IPAR) that determine the behaviour of the certified communicating device, and protections (PROTECT) that the certified communicating device is capable of providing to the activities at least according to said parameters, the certified communicating device being adapted to receive, from an expert system that has the formal model, parameters that determine the behaviour of the certified communicating device such that the behaviour corresponds to security goals (GOAL) provided to the expert system.