mhurhangee/ep-ind-claims huggingface dataset:
A support for a biocontainer bag including an impeller to be placed in a tote comprising: (a) a base plate having opposing sides (1, 2), a front end and a rear end; and, (b) first and second opposing side walls (11, 12), each side wall having an upper portion (11B, 12B) and a lower portion (11A, 12A); said support being characterized in that - said base plate includes a generally centrally located first opening; and an offset second opening located near the front end; the first opening having a first diameter; the offset second opening having a second diameter, the second diameter being less than the first diameter; the base plate further comprising a notch at the rear end, wherein the notch can allow alignment with a tote; wherein the base plate, if placed in the tote, can have a horizontal axis providing a high point and a low point, the low point being located at the offset second opening; and, - said first and second opposing side walls (11, 12) are hingedly connected to respective opposing sides (1, 2) of the base plate, each side wall (11, 12) having a horizontally arranged hinge (11D, 12D) between the upper portion (11B, 12B) and the lower portion (11A, 12A), and including at least one opening (11', 12') suitable for grasping the side wall (11, 12) and/or including a strap (121, 122) for carrying the support while transporting a biocontainer bag to and/or from the tote. (a) a base plate having opposing sides (1, 2), a front end and a rear end; and, (b) first and second opposing side walls (11, 12), each side wall having an upper portion (11B, 12B) and a lower portion (11A, 12A); - said base plate includes a generally centrally located first opening; and an offset second opening located near the front end; the first opening having a first diameter; the offset second opening having a second diameter, the second diameter being less than the first diameter; the base plate further comprising a notch at the rear end, wherein the notch can allow alignment with a tote; wherein the base plate, if placed in the tote, can have a horizontal axis providing a high point and a low point, the low point being located at the offset second opening; and, - said first and second opposing side walls (11, 12) are hingedly connected to respective opposing sides (1, 2) of the base plate, each side wall (11, 12) having a horizontally arranged hinge (11D, 12D) between the upper portion (11B, 12B) and the lower portion (11A, 12A), and including at least one opening (11', 12') suitable for grasping the side wall (11, 12) and/or including a strap (121, 122) for carrying the support while transporting a biocontainer bag to and/or from the tote.
A method of controlling a calibration process comprising the steps of: providing an actuator; providing a calibration process having a partial calibration routine and a calibration routine; providing a detector capable of receiving one or more input signals; starting a control method, said detector receiving said input signals and determining whether a partial calibration routine or a calibration routine will take place based on the values of said one or more input signals; performing said partial calibration routine if said values of said one or more input signals favor said partial calibration routine and do not favor said calibration routine, the actuator being operated to move to a first limitation of its operating range to learn or verify a first characteristic value indicative of a first function and the actuator then being operated using the first characteristic value and a previously stored second characteristic value; continuing to operate the actuator using the learned or verified first characteristic value and the previously stored second characteristic value. providing an actuator; providing a calibration process having a partial calibration routine and a calibration routine; providing a detector capable of receiving one or more input signals; starting a control method, said detector receiving said input signals and determining whether a partial calibration routine or a calibration routine will take place based on the values of said one or more input signals; performing said partial calibration routine if said values of said one or more input signals favor said partial calibration routine and do not favor said calibration routine, the actuator being operated to move to a first limitation of its operating range to learn or verify a first characteristic value indicative of a first function and the actuator then being operated using the first characteristic value and a previously stored second characteristic value; continuing to operate the actuator using the learned or verified first characteristic value and the previously stored second characteristic value.
A polypropylene composition comprising a polypropylene-based polymer and a nucleating composition comprising aluminosilicate clay and an organic nucleating agent, wherein the organic nucleating agent is selected from the group consisting of bis(4-(tert-butyl)benzoato-O)hydroxyaluminium; sodium benzoate; aluminum hydroxy-bis[2,4,8,10-tetrakis(1,1-dimethylethyl)-6-hydroxy-12H-dibenzo-[d,g]-dioxa-phosphocin-6-oxidato] containing nucleating agents, sodium-2,2'-methylene-bis(4,6-di-t-butylphenyl)phosphate, aluminium-hydroxy-bis[2,2'-methylene-bis(4,6-di-t-butylphenyl)-phosphate], sorbitol based nucleating agents and polymeric nucleating agents selected from the group consisting of vinylcycloalkane polymers and vinylalkane polymers; a bicyclic dicarboxylate metal salt represented by formula wherein M 1 and M 2 are independently selected from the group consisting of: sodium, calcium, strontium, lithium, zinc, magnesium, and monobasic aluminum; wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are independently selected from the group consisting of: hydrogen and C 1 -C 9 alkyls; and further wherein any two adjacently positioned R 3 -R 10 alkyl groups optionally may be combined to form a carbocyclic ring; a metal salt of hexahydrophthalic acid represented by formula wherein M 1 and M 2 are the same or different, and may be combined into one cation, and are selected from at least one metal cation of calcium, strontium, lithium, and monobasic aluminum; and wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are either the same or different and are individually selected from the group consisting of hydrogen, C 1 -C 9 alkyl, hydroxy, C 1 -C 9 alkoxy, C 1 -C 9 alkyleneoxy, amine, and C 1 -C 9 alkylamine, halogens, and phenyl, and combinations thereof, wherein the aluminosilicate clay is naturally occurring halloysite nanotubular clay and wherein the amount of the aluminosilicate clay is 0.005-0.45 wt% with respect to the total composition.
Body structure of an electrically driven passenger motor vehicle, which has a battery compartment (11, 19) which is integrated in an underbody below vehicle seats and in which a traction battery is arranged, wherein the battery compartment has a main battery compartment which is formed by a centre tunnel running in the longitudinal direction (x) of the vehicle and into which the traction battery projects and which is extended below the vehicle seats in the transverse direction (y) of the vehicle by at least one battery sub-compartment, wherein, in order to form the battery sub-compartment, at least one downwardly open shell is attached to the centre tunnel and merges at the front and rear into the underbody and is connected via lateral intermediate plates to the longitudinal members, wherein, in order to protect the battery against a side crash, a free deformation space is provided in the transverse direction (y) of the vehicle between a side wall of the shell forming the battery sub-compartment and the body longitudinal member forming the door sill, said free deformation space being downwardly bounded by a sheet-metal part on the floor side and being extended in the form of a channel in the longitudinal direction (x) of the vehicle, characterized in that a ventilation duct of a ventilation device runs in the free deformation space.
Incised prepreg comprising a layer containing reinforcement fiber impregnated with a resin composition, the prepreg being an incised prepreg having a plurality of incisions, at least partly containing reinforcement fibers with a fiber length of 10 to 300 mm, and having a reinforcement fiber content by volume Vf in the range of 45% to 65%, wherein a plurality of discontinuous incisions crossing the reinforcement fibers exist at least in a part of the incised prepreg, the discontinuous incisions being in a linear shape and having a substantially equal length Y, and the distance between neighboring incisions on the same straight line is 3 times as long as Y or more than 3 times as long as Y.
A method for recovering rhenium from a reductive amination catalyst, comprising the steps of: a) providing a heterogeneous catalyst that has been used in a reducing atmosphere to carry out a reductive amination, wherein the catalyst comprises a substrate and at least one species comprising rhenium and at least one species comprising nickel supported on the substrate, wherein the at least one species comprising rhenium has a first solubility in a liquid carrier, and wherein the substrate comprises at least 15 weight percent alumina based on the total weight of the substrate; b) causing the catalyst to contact the liquid carrier in the presence of heat and at least one oxidizing agent under conditions effective to convert at least a portion of the Re-containing species into a Re-containing product that has a second solubility in the liquid carrier, wherein the second solubility is greater than the first solubility; and c) extracting the Re-containing product into the liquid carrier. a) providing a heterogeneous catalyst that has been used in a reducing atmosphere to carry out a reductive amination, wherein the catalyst comprises a substrate and at least one species comprising rhenium and at least one species comprising nickel supported on the substrate, wherein the at least one species comprising rhenium has a first solubility in a liquid carrier, and wherein the substrate comprises at least 15 weight percent alumina based on the total weight of the substrate; b) causing the catalyst to contact the liquid carrier in the presence of heat and at least one oxidizing agent under conditions effective to convert at least a portion of the Re-containing species into a Re-containing product that has a second solubility in the liquid carrier, wherein the second solubility is greater than the first solubility; and c) extracting the Re-containing product into the liquid carrier.
Method of operating a changeover converter installation of a converter-steel works, wherein in alternation the converter which has become unusable due to wear of the refractory material is removed from the converter stand for repair and a converter refurbished with refractory material is introduced into converter stand in exchange, characterised in that in the exchange process the worn converter inclusive of the entire converter assembly, consisting additionally to the converter of converter carriage, support ring, tilt drive, bottom purging device and a possibly present support ring cooling device, is for repair moved out of the converter stand into a free repair and waiting stand and at the same time another, constructionally identical converter assembly containing a repaired converter ready for use is moved out of a further repair and waiting stand into the converter stand, wherein the transport of the converter assembly (31, 3b) is carried out by means of the converter carriage, which is constructed to be integrated with an own drive, on the converter carriage track, wherein after separation of the converter assembly (3a, 3b) from a central energy and media station, which is used in common by both converter assemblies (3a, 3b), an automotive energy supply carriage is, for supply of energy for the transport, led by way of the converter carriage track up to the converter carriage and coupled thereat to the carriage.
A remote terahertz communication system, comprises a terahertz transmitting device and a terahertz receiving device, wherein the terahertz transmitting device comprises a terahertz transmitter, a first high gain directional antenna, a first laser transmitting module, a first laser receiving module, a first optical path adjusting module and a first control module; the terahertz receiving device comprises a terahertz receiver, a second high gain directional antenna, a second laser transmitting module, a second laser receiving module, a second optical path adjusting module and a second control module; wherein the first control module is respectively connected with the first laser receiving module and the first optical path adjusting module, and the second control module is respectively connected with the second laser receiving module and the second optical path adjusting module; wherein the terahertz transmitter is configured to transmit a first modulated terahertz signal, the first laser transmitting module is configured to transmit a first colored laser signal, the first optical path adjusting module is configured to combine the first terahertz signal and the first colored laser signal into a beam of signal light and to transmit the signal light to the terahertz receiving device through the first high gain directional antenna; wherein the second high gain directional antenna is configured to receive the signal light, the second optical path adjusting module is configured to divide the signal light into the first terahertz signal and the first colored laser signal, the terahertz receiver is configured to receive and demodulate the first terahertz signal, the second laser receiving module is configured to receive the first colored laser signal, the second control module is configured to control the second optical path adjusting module to adjust the signal receiving direction of the second high gain directional antenna according to the signal strength of the first colored laser signal; wherein second laser transmitting module is configured to transmit a second colored laser signal and to transmit the second colored laser signal to the second high gain directional antenna through the second optical path adjusting module, the second high gain directional antenna being configured to transmit the second colored laser signal to the terahertz transmitting device; wherein the first high gain directional antenna is configured to receive the second colored laser signal and to transmit the received signal to the first laser receiving module through the first optical path adjusting module, and the first control module is configured to control the first optical path adjusting module to adjust the signal transmitting direction of the first high gain directional antenna according to the signal strength of the second colored laser signal.
A trace element solution, which comprises at least the following metals: (a) zinc in a concentration of at least 60mg/ml; (b) manganese in a concentration of at least 10mg/ml; (c) selenium in a concentration of at least 5mg/ml; and (d) copper in a concentration of at least 15mg/ml; and which comprises a concentration of the metals of at least 90 mg/ml, wherein the composition is obtainable by a method consisting essentially of the steps of: (a) heating water; (b) adding manganese carbonate to the water; (c) adding zinc oxide to the water; (d) adding copper carbonate to the water to form a liquid mixture; (e) adding a dry mixture comprising EDTA and/or EDDS and NaOH to the liquid mixture; and (f) adding Na 2 SeO 3 to form the trace element solution. (a) zinc in a concentration of at least 60mg/ml; (b) manganese in a concentration of at least 10mg/ml; (c) selenium in a concentration of at least 5mg/ml; and (d) copper in a concentration of at least 15mg/ml; (a) heating water; (b) adding manganese carbonate to the water; (c) adding zinc oxide to the water; (d) adding copper carbonate to the water to form a liquid mixture; (e) adding a dry mixture comprising EDTA and/or EDDS and NaOH to the liquid mixture; and (f) adding Na 2 SeO 3 to form the trace element solution.
Use of a compound of formula to determine the quantity of superplasticizer-intercalating clay in a sand and/or to determine the amount of Clay Mitigation Agent CMA to be added to a hydraulic binder composition using a sand R 1 - n -XR 2 wherein: R 1 represents a linear or branched C1 to C4 alkyl group, or a coloured compound; R 2 represents a coloured compound; A, each the same or different, independently represents a-CH 2 -CH 2 - group or -CH(CH 3)-CH 2 - group; n represents an integer of between 1 and 500, preferably of between 4 and 250 X is O or NH. R 1 represents a linear or branched C1 to C4 alkyl group, or a coloured compound; R 2 represents a coloured compound; A, each the same or different, independently represents a-CH 2 -CH 2 - group or -CH(CH 3)-CH 2 - group; n represents an integer of between 1 and 500, preferably of between 4 and 250 X is O or NH.
Fuel cell unit having a CEA as cathode-electrolyte-anode unit, in which an interconnector comprising a CEA mounting element, a base plate and a porous gas distributor element is formed, the CEA mounting element and the base plate forming, as sheet metal parts as two shells, a housing surrounding the gas distributor element in a gas-tight manner relative to the exterior, and the base plate and the CEA mounting element being provided with at least one opening for the operating material supply (202, 204, 301, 303) and at least one opening for the operating material discharge (203, 205, 302, 304), characterised in that webs made of an electrically conductive material are applied to/formed on an outer surface of the base plate.
A dye-sensitized solar cell comprising: a semiconductor electrode comprising an electrospun ultra-fine fibrous titanium dioxide layer; a counter electrode; and an electrolyte interposed between the semiconductor electrode and the counter electrode, wherein the ultra-fine fibrous dioxide layer includes ultra-fine titanium dioxide fibres having a diameter of 50-1000 nm, characterised in that the fibres are formed by a bunch of fine fibre having a thickness of 10-30 nm and being one dimensionally arranged. a semiconductor electrode comprising an electrospun ultra-fine fibrous titanium dioxide layer; a counter electrode; and an electrolyte interposed between the semiconductor electrode and the counter electrode, wherein the ultra-fine fibrous dioxide layer includes ultra-fine titanium dioxide fibres having a diameter of 50-1000 nm, characterised in that the fibres are formed by a bunch of fine fibre having a thickness of 10-30 nm and being one dimensionally arranged.
A medical device having a therapy delivery circuit comprising: a signal source configured to generate an electrical stimulation pulse signal having a pulse width; a modulator configured to modulate the electrical stimulation pulse signal by at least one of: modulating, during the pulse width, a frequency of oscillations of the electrical stimulation pulse signal between a minimum frequency and a maximum frequency greater than the minimum frequency; or modulating, during the pulse width, a bias of the electrical stimulation pulse signal between a minimum offset and a maximum offset greater than the minimum offset; and an output circuit configured to receive the modulated electrical stimulation pulse signal, the output circuit being coupleable to a stimulation electrode for delivering the electrical stimulation pulse signal. a signal source configured to generate an electrical stimulation pulse signal having a pulse width; a modulator configured to modulate the electrical stimulation pulse signal by at least one of: modulating, during the pulse width, a frequency of oscillations of the electrical stimulation pulse signal between a minimum frequency and a maximum frequency greater than the minimum frequency; or modulating, during the pulse width, a bias of the electrical stimulation pulse signal between a minimum offset and a maximum offset greater than the minimum offset; and modulating, during the pulse width, a frequency of oscillations of the electrical stimulation pulse signal between a minimum frequency and a maximum frequency greater than the minimum frequency; or modulating, during the pulse width, a bias of the electrical stimulation pulse signal between a minimum offset and a maximum offset greater than the minimum offset; and an output circuit configured to receive the modulated electrical stimulation pulse signal, the output circuit being coupleable to a stimulation electrode for delivering the electrical stimulation pulse signal.
Hot rolling mill with a heating device for the inductive heating of a flat steel strip in the hot rolling mill, wherein the heating device is arranged between two rolling trains of the hot rolling mill and the flat steel strip runs at a speed through the heating device in a transporting direction, wherein the heating device comprises: - a first module group with a plurality of, in particular 6 to 12, transverse-field modules, which are arranged one after the other along the transporting direction of the flat steel strip, - a second module group with a plurality of, in particular 2 to 8, longitudinal-field modules, which are arranged one after the other along the transporting direction of the flat steel strip, wherein the second module group is arranged before or after the first module group along the transporting direction, - a power supply for supplying at least one transverse-field module or one longitudinal-field module with an alternating voltage, wherein the power supply has a converter and an electrically connected capacitor bank with multiple capacitors connected in parallel, and wherein the power supply comprises a frequency input for determining a setpoint frequency (f Soll) and the frequency (f) of the alternating voltage follows the setpoint frequency (f Soll). - a first module group with a plurality of, in particular 6 to 12, transverse-field modules, which are arranged one after the other along the transporting direction of the flat steel strip, - a second module group with a plurality of, in particular 2 to 8, longitudinal-field modules, which are arranged one after the other along the transporting direction of the flat steel strip, wherein the second module group is arranged before or after the first module group along the transporting direction, - a power supply for supplying at least one transverse-field module or one longitudinal-field module with an alternating voltage, wherein the power supply has a converter and an electrically connected capacitor bank with multiple capacitors connected in parallel, and wherein the power supply comprises a frequency input for determining a setpoint frequency (f Soll) and the frequency (f) of the alternating voltage follows the setpoint frequency (f Soll).
Dry mortar containing at least 30.1 wt.% hydraulic binder, 5 to 25 wt.% redispersible plastics dispersion powder having self-crosslinking properties, 15 to 25 wt.% rubber powder and other usual aggregates and additives, characterised in that the dry mortar also contains 1 to 20 wt.% exfoliated vermiculite which is ground and has a grain size of less than 0.125 mm, the proportion of the plastics dispersion powder, the rubber powder and the exfoliated vermiculite being in total at least 25 wt.%, based on the total mass of the dry mortar.