mhurhangee/ep-ind-claims huggingface dataset:
A process for producing light olefins that are ethylene and propylene, wherein in the process for producing light olefins by continuously contacting an oxygen-containing compound feedstock and a catalyst to conduct a dehydration reaction, the reaction pressure P of the dehydration reaction is 0.5-10MPa, preferably 0.75-3.5MPa, more preferably 0.8-3MPa, most preferably 1-2MPa, the weight hourly space velocity H of the dehydration reaction is 7-250h -1, preferably 8-150h -1, more preferably 10-100h -1, more preferably 15-80h -1, most preferably 15-50h -1, wherein the process comprises the following steps: continuously contacting the oxygen-containing compound feedstock and the catalyst to conduct the dehydration reaction to obtain a light olefins-rich hydrocarbon and a spent catalyst, transporting at least a part of the spent catalyst to the regeneration reaction to obtain a regenerated catalyst, and circulating at least a part of the regenerated catalyst to the dehydration reaction, wherein the reaction pressure P of the dehydration reaction is at least 0.35MPa, preferably 0.4MPa, 0.5MPa, 0.6MPa, 0.7MPa, 0.8MPa, 0.9MPa, 1.0MPa, 1.1MPa, 1.2MPa, 1.3MPa, 1.4MPa, 1.5MPa, 1.6MPa, 1.7MPa, 1.8MPa, 1.9MPa or 2.0MPa higher than the regeneration pressure of the regeneration reaction, wherein the transporting and the circulating are performed via one or more, preferably one or two, catalyst hoppers, and wherein the catalyst is selected from at least one of aluminosilicophosphate zeolite catalysts and aluminosilicate zeolite catalysts. continuously contacting the oxygen-containing compound feedstock and the catalyst to conduct the dehydration reaction to obtain a light olefins-rich hydrocarbon and a spent catalyst, transporting at least a part of the spent catalyst to the regeneration reaction to obtain a regenerated catalyst, and circulating at least a part of the regenerated catalyst to the dehydration reaction, wherein the reaction pressure P of the dehydration reaction is at least 0.35MPa, preferably 0.4MPa, 0.5MPa, 0.6MPa, 0.7MPa, 0.8MPa, 0.9MPa, 1.0MPa, 1.1MPa, 1.2MPa, 1.3MPa, 1.4MPa, 1.5MPa, 1.6MPa, 1.7MPa, 1.8MPa, 1.9MPa or 2.0MPa higher than the regeneration pressure of the regeneration reaction, wherein the transporting and the circulating are performed via one or more, preferably one or two, catalyst hoppers, and wherein the catalyst is selected from at least one of aluminosilicophosphate zeolite catalysts and aluminosilicate zeolite catalysts.
A sound diffuser wherein: a. a diffuser barrel having a bottom annular perimeter flange and first and second opposed pluralities of partial internal barrel threads adapted to engage an acoustic channel shell of a speaker; b. a first plurality of magnets ( 118, 120, 122) fixed to a bottom side of said bottom annular perimeter flange; c. a magnetically-attracted ring releasably attachable to said bottom side of said bottom annular perimeter flange; d. a first printable surface on a bottom surface of said ring; e. a diffuser body, supported by said diffuser barrel, having a bottom side; f. a second plurality of magnets (136, 138, 140) fixed to said bottom side of said diffuser body; g. a magnetically-attracted disc releasably attachable to said bottom side of said diffuser body; and h. a second printable surface on a bottom surface of said disc. a. a diffuser barrel having a bottom annular perimeter flange and first and second opposed pluralities of partial internal barrel threads adapted to engage an acoustic channel shell of a speaker; b. a first plurality of magnets ( 118, 120, 122) fixed to a bottom side of said bottom annular perimeter flange; c. a magnetically-attracted ring releasably attachable to said bottom side of said bottom annular perimeter flange; d. a first printable surface on a bottom surface of said ring; e. a diffuser body, supported by said diffuser barrel, having a bottom side; f. a second plurality of magnets (136, 138, 140) fixed to said bottom side of said diffuser body; g. a magnetically-attracted disc releasably attachable to said bottom side of said diffuser body; and h. a second printable surface on a bottom surface of said disc.
An aqueous polishing agent, comprising at least one type of solid polymer particles as an abrasive, the said polymer particles being finely dispersed in the aqueous phase and containing - pendant functional groups capable of strongly interacting with the metal of and/or the metal oxides on top of the surfaces to be polished and forming strong complexes with the said metal, and - pendant functional groups capable of interacting less strongly with the metal of the surfaces to be polished than the functional groups; and at least one organic non-polymeric compound as a complexing agent, the said compound being dissolved in the aqueous phase and capable of - interacting with the metal of and/or the metal oxides on top of the surfaces to be polished, - forming strong, water-soluble complexes with the said metal, and - causing an increase of the material removal rate MRR and the static etch rate SER of the metal surfaces to be polished with increasing concentration of the compound in the aqueous polishing agent. at least one type of solid polymer particles as an abrasive, the said polymer particles being finely dispersed in the aqueous phase and containing - pendant functional groups capable of strongly interacting with the metal of and/or the metal oxides on top of the surfaces to be polished and forming strong complexes with the said metal, and - pendant functional groups capable of interacting less strongly with the metal of the surfaces to be polished than the functional groups; and - pendant functional groups capable of strongly interacting with the metal of and/or the metal oxides on top of the surfaces to be polished and forming strong complexes with the said metal, and - pendant functional groups capable of interacting less strongly with the metal of the surfaces to be polished than the functional groups; and at least one organic non-polymeric compound as a complexing agent, the said compound being dissolved in the aqueous phase and capable of - interacting with the metal of and/or the metal oxides on top of the surfaces to be polished, - forming strong, water-soluble complexes with the said metal, and - causing an increase of the material removal rate MRR and the static etch rate SER of the metal surfaces to be polished with increasing concentration of the compound in the aqueous polishing agent. - interacting with the metal of and/or the metal oxides on top of the surfaces to be polished, - forming strong, water-soluble complexes with the said metal, and - causing an increase of the material removal rate MRR and the static etch rate SER of the metal surfaces to be polished with increasing concentration of the compound in the aqueous polishing agent.
A method comprising: receiving traffic data regarding a plurality of observed encrypted traffic flows; generating synthetic traffic data based on one or more characteristics of the observed encrypted traffic flows from the traffic data, wherein the observed encrypted traffic flows from the traffic data are mapped to traffic characteristics associated with a targeted deployment environment; and training a machine learning-based traffic classifier using the synthetic traffic data, wherein the machine learning-based traffic classifier is configured to classify at least one of i) a particular encrypted traffic flow as benign or malware-related and ii) an application associated with a particular encrypted traffic flow. receiving traffic data regarding a plurality of observed encrypted traffic flows; generating synthetic traffic data based on one or more characteristics of the observed encrypted traffic flows from the traffic data, wherein the observed encrypted traffic flows from the traffic data are mapped to traffic characteristics associated with a targeted deployment environment; and training a machine learning-based traffic classifier using the synthetic traffic data, wherein the machine learning-based traffic classifier is configured to classify at least one of i) a particular encrypted traffic flow as benign or malware-related and ii) an application associated with a particular encrypted traffic flow.
A computer-implemented method to determine a susceptibility distribution of an examination subject, the method comprising the steps: a) receiving an MR image dataset acquired during an examination session from a recoding region covering a part of the body of the examination subject and having a first resolution (Δx), b) segmenting the MR image dataset into regions depicting air and regions depicting biological tissue (62, 63) and assigning a pre-determined susceptibility value to each segmented region, wherein this step b) is carried out using a trained third neural network, the third neural network receiving an MR image dataset as input data and generating a susceptibility distribution as output data, the susceptibility distribution including at least values for air, tissue and optionally lung, c) applying a trained function based on at least one trained neural network to the susceptibility distribution as input data, wherein the trained function generates as output data an output image having a higher resolution (Δw) than the MR image dataset or the segmented MR image dataset, d) providing a final susceptibility distribution which is based on the output image. a) receiving an MR image dataset acquired during an examination session from a recoding region covering a part of the body of the examination subject and having a first resolution (Δx), b) segmenting the MR image dataset into regions depicting air and regions depicting biological tissue (62, 63) and assigning a pre-determined susceptibility value to each segmented region, wherein this step b) is carried out using a trained third neural network, the third neural network receiving an MR image dataset as input data and generating a susceptibility distribution as output data, the susceptibility distribution including at least values for air, tissue and optionally lung, c) applying a trained function based on at least one trained neural network to the susceptibility distribution as input data, wherein the trained function generates as output data an output image having a higher resolution (Δw) than the MR image dataset or the segmented MR image dataset, d) providing a final susceptibility distribution which is based on the output image.
A kit-of-parts for the flow cytometric detection of pediatric tumor cells, the kit comprising fluorochrome-conjugated antibodies directed against the cell surface markers CD45, CD56, GD2, CD99, CD8, EpCAM, CD4, smCD3, CD19 and CD271, the cytoplasmic marker cyCD3, and the nuclear marker(s) nuMyogenin and/or nuMyoD1, wherein (i) the antibodies against the markers CD99/CD8 are conjugated to the same fluorochrome and representing a first marker pair CD99/CD8; (ii) the antibodies against the markers EpCAM/CD4 are conjugated to the same fluorochrome and representing a second marker pair EpCAM/CD4; (ii) the antibody against CD271 is conjugated to the same fluorochrome as the antibody against either cyCD3 or smCD3 and representing a third marker pair CD271/cyCD3 or CD271/smCD3; wherein the kit comprises the antibodies conjugated to ≥ 8 distinguishable fluorochromes; wherein between the first, second and third marker pairs the fluorochromes are distinguishable; and wherein the antibodies against the cytoplasmic and the nuclear markers are physically separated from the antibodies against the cell surface markers. (i) the antibodies against the markers CD99/CD8 are conjugated to the same fluorochrome and representing a first marker pair CD99/CD8; (ii) the antibodies against the markers EpCAM/CD4 are conjugated to the same fluorochrome and representing a second marker pair EpCAM/CD4; (ii) the antibody against CD271 is conjugated to the same fluorochrome as the antibody against either cyCD3 or smCD3 and representing a third marker pair CD271/cyCD3 or CD271/smCD3;
A composition, comprising: (a) from 50 to 65 wt% of styrene-acrylonitrile copolymer; (b) from 3 to 33 wt% of styrene-acrylonitrile - acrylonitrile-butadiene-styrene (SAN-ABS) graft copolymer; (c) from 2 to 30 wt% talc; and (d) one or more modifiers, wherein a wt% is calculated on the basis of the total weight of (a), (b), (c), and (d), and wherein the combined weight percent value of all components does not exceed 100 wt%. (a) from 50 to 65 wt% of styrene-acrylonitrile copolymer; (b) from 3 to 33 wt% of styrene-acrylonitrile - acrylonitrile-butadiene-styrene (SAN-ABS) graft copolymer; (c) from 2 to 30 wt% talc; and (d) one or more modifiers,
Actuating or generating device comprising an AC rotary electric machine (130; 230; 330a, 330b; 440a, 440b) having an electrical connection (122, 124; 222, 224; 322, 324; 422, 424) for applying to terminals of the stator of the machine an alternative voltage delivered at the output of a control converter, the last element of which before the electrical connection being a converter delivering an alternative voltage at a frequency defined by an electronic of control, the connection comprising a rotary transformer (122; 222; 322; 422), the device being characterized in that the fixed control converter is configured to servo-control the machine in vector and/or scalar control via the rotary transformer without resorting to an active actuator between said rotary transformer and the machine.
A drive unit integrated rotating electrical machine having a motor, a drive unit driving the motor under control and provided with power switching elements (FETps) and conductors passing a current to the power switching elements, and a heat sink cooling the drive unit, which are combined into one unit, wherein the power switching elements (FETps) are molded and formed into mold modules in a state in which terminals thereof are exposed; the conductors are insert-molded in a frame in a state in which terminals (41,42) thereof are exposed; the exposed terminals of the mold modules are connected to the exposed terminals (41,42) of the insert-molded conductors and the mold modules are firmly fixed to the heat sink; characterized in that: the mold modules are pressed against the heat sink by the frame such that heat generated in the power switch element (FETps) in the mold module is transmitted to the heat sink. the mold modules are pressed against the heat sink by the frame such that heat generated in the power switch element (FETps) in the mold module is transmitted to the heat sink.
A device for compressing a chest of a patient comprising: a platform for placement under a thorax of the patient; a compression belt adapted to extend over an anterior chest wall of the patient, said belt comprising a load distribution section and right belt end and a left belt end; a motor operably connected to the belt through a drive train, said motor capable of operating the drive train repeatedly to cause the belt to tighten about the thorax of the patient and loosen about the thorax of the patient; wherein the drive train comprises a right drive spool and a left drive spool, said right drive spool and left drive spool disposed laterally in the platform, and a linkage operably connecting the motor to said right drive spool and left drive spool to drive the right drive spool and left drive spool; and the right belt end and the left belt end are releasably attachable to the right drive spool and left drive spool, respectively, at attachment points accessible from anterior or lateral sides of the platform, such that the right belt end and left belt end can be attached to the right drive spool and the left drive spool while the platform is disposed under the patient. a platform for placement under a thorax of the patient; a compression belt adapted to extend over an anterior chest wall of the patient, said belt comprising a load distribution section and right belt end and a left belt end; a motor operably connected to the belt through a drive train, said motor capable of operating the drive train repeatedly to cause the belt to tighten about the thorax of the patient and loosen about the thorax of the patient; wherein the drive train comprises a right drive spool and a left drive spool, said right drive spool and left drive spool disposed laterally in the platform, and a linkage operably connecting the motor to said right drive spool and left drive spool to drive the right drive spool and left drive spool; and the right belt end and the left belt end are releasably attachable to the right drive spool and left drive spool, respectively, at attachment points accessible from anterior or lateral sides of the platform, such that the right belt end and left belt end can be attached to the right drive spool and the left drive spool while the platform is disposed under the patient.
Prefabricated heatable media line having at least one tube- and/or hose-like media line, at least one line connector (3, 4) arranged at an end thereof, and having at least one prefabricated heating element, wherein the prefabricated heating element comprises at least two partial heating elements (50, 51, 58, 59) which are connected in at least one circuit, and at least one of the partial heating elements (50, 51) extends over at least one portion of the at least one line connector (3, 4) and the at least one tube- and/or hose-like media line in order to heat the at least one portion of the line connector (3, 4) and the at least one tube- and/or hose-like media line, characterised in that no crimp zone or other connecting zone between the partial heating elements (50, 51, 58, 59) is provided in the transition region between the media line and the line connector (3, 4), wherein at least one of the partial heating elements (50, 51, 58, 59) is in the form of a mixed conductor strand which has a plurality of single wires (151, 152, 153, 154, 155, 156, 157) consisting of at least two different materials which are twisted around a high-tensile support element, wherein the mixed conductor strand is formed of 7, 19 or 37 single wires and one of the single wires serves as the high-tensile support element, wherein at least one single wire consists of a copper-nickel alloy and at least one of the further single wires consists of copper or a nickel-chromium alloy, and wherein the single wires have the same wire diameter. characterised in that no crimp zone or other connecting zone between the partial heating elements (50, 51, 58, 59) is provided in the transition region between the media line and the line connector (3, 4), wherein at least one of the partial heating elements (50, 51, 58, 59) is in the form of a mixed conductor strand which has a plurality of single wires (151, 152, 153, 154, 155, 156, 157) consisting of at least two different materials which are twisted around a high-tensile support element, wherein the mixed conductor strand is formed of 7, 19 or 37 single wires and one of the single wires serves as the high-tensile support element, wherein at least one single wire consists of a copper-nickel alloy and at least one of the further single wires consists of copper or a nickel-chromium alloy, and wherein the single wires have the same wire diameter.
A method of reducing the output speed of a transmission in a vehicle, the transmission including an output speed sensor and a controller and the vehicle including a proximity sensor, the method comprising: (a) determining whether a user input switch is enabled; (b) measuring output speed with the output speed sensor and comparing the measured output speed to an output speed threshold; (c) receiving throttle percentage with the controller and comparing the throttle percentage to a throttle threshold; (d) receiving an input signal from the proximity sensor and comparing the input signal to a signal threshold; (e) determining whether the controller has priority or control over vehicle braking; (f) enabling the controller to control transmission output speed based on the result of each determination in step (a) and step (e) and based on the result of each comparison in steps (b) - (d); and (g) controlling the output speed of the transmission with the controller based on the outcome of step (f). (a) determining whether a user input switch is enabled; (b) measuring output speed with the output speed sensor and comparing the measured output speed to an output speed threshold; (c) receiving throttle percentage with the controller and comparing the throttle percentage to a throttle threshold; (d) receiving an input signal from the proximity sensor and comparing the input signal to a signal threshold; (e) determining whether the controller has priority or control over vehicle braking; (f) enabling the controller to control transmission output speed based on the result of each determination in step (a) and step (e) and based on the result of each comparison in steps (b) - (d); and (g) controlling the output speed of the transmission with the controller based on the outcome of step (f).
A drive system, in particular for a vehicle, with • an output unit, • a drive unit for driving the output unit, • a drive interface by means of which the output unit can be coupled to the drive unit, • at least one brake unit for braking the output unit, and • at least one brake interface different from the drive interface, by means of which the output unit can be coupled to the at least one brake unit, wherein the at least one brake interface has a gear stage with an output-side gear component arranged on the output unit and a brake-side gear component arranged on the at least one brake unit, characterized in that the output unit is designed as a travel wheel. • an output unit, • a drive unit for driving the output unit, • a drive interface by means of which the output unit can be coupled to the drive unit, • at least one brake unit for braking the output unit, and • at least one brake interface different from the drive interface, by means of which the output unit can be coupled to the at least one brake unit, wherein the at least one brake interface has a gear stage with an output-side gear component arranged on the output unit and a brake-side gear component arranged on the at least one brake unit, characterized in that the output unit is designed as a travel wheel.
A radio frequency identification device (RFID) for a tire comprising: (a) a sensor for sensing the earth's magnetic field said sensor using the earth's magnetic field to obtain a count of tire rotation; (b) a control logic microcontroller; (c) a comparator circuit connecting said sensor to said control logic; (d) a radio frequency transmitter; and (e) power means characterized in that said sensor is connected to both the comparator circuit and an operational amplifier, and a potentiometer, and acting therewith transmits comparison data to said control logic microcontroller. (a) a sensor for sensing the earth's magnetic field said sensor using the earth's magnetic field to obtain a count of tire rotation; (b) a control logic microcontroller; (c) a comparator circuit connecting said sensor to said control logic; (d) a radio frequency transmitter; and (e) power means