mhurhangee/ep-ind-claims huggingface dataset:
A composite machining machine configured to perform additive manufacturing and cutting on a workpiece, the composite machining machine comprising: a first machining head movable relative to the workpiece in a first region to perform additive manufacturing on the workpiece in a second region included in the first region; a second machining head movable relative to the workpiece in the second region to perform cutting on the workpiece; a workpiece holder configured to hold the workpiece in the second region; a cover covering the first region; and a frame of a portal structure comprising: two columns (121a, 121b); and a beam member coupling the two columns (121a, 121b), wherein the cover comprises a region defining member at least partially openably disposed, wherein the region defining member is disposed at a position that defines the second region inside the first region, wherein the first machining head is attached so as to move in a guided manner in a predetermined range between the two columns (121a, 121b) on the beam member, and wherein the beam member is disposed so that the predetermined range lies inside the first region, and outside and above the second region. a first machining head movable relative to the workpiece in a first region to perform additive manufacturing on the workpiece in a second region included in the first region; a second machining head movable relative to the workpiece in the second region to perform cutting on the workpiece; a workpiece holder configured to hold the workpiece in the second region; a cover covering the first region; and a frame of a portal structure comprising: two columns (121a, 121b); and a beam member coupling the two columns (121a, 121b), two columns (121a, 121b); and a beam member coupling the two columns (121a, 121b), wherein the cover comprises a region defining member at least partially openably disposed, wherein the region defining member is disposed at a position that defines the second region inside the first region, wherein the first machining head is attached so as to move in a guided manner in a predetermined range between the two columns (121a, 121b) on the beam member, and wherein the beam member is disposed so that the predetermined range lies inside the first region, and outside and above the second region.
A sonotrode for use in an ultrasonic welding apparatus comprising a machine stand to which an ultrasonic oscillating unit and a counterpart tool is fastened, wherein the sonotrode has a sealing surface which is substantially in the form of a circular ring or a cylinder surface and the ultrasonic oscillating unit has a holder for fastening the ultrasonic oscillating unit to a machine stand, wherein the sonotrode comprises a bar-shaped portion and a wheel-shaped portion arranged at the center in the longitudinal direction of the bar-shaped portion, wherein the diameter of the wheel-shaped portion is larger than the diameter of the bar-shaped portion and the ratio of the length of the bar-shaped portion to the diameter of the wheel-shaped portion is greater than 0.8 and smaller than 2 and the sonotrode shows three oscillation nodes in the case of resonant ultrasonic excitation, wherein each portion, which lasts from one oscillation maximum to the next oscillation maximum in the longitudinal direction and which does not influence the natural frequency of the longitudinal oscillation, is not part of the sonotrode.
A vehicle (102, 502) comprising: at least one programmable computing device, the at least one programmable computing device comprising a memory configured to store instructions that are executable by a processor; a software loader (150, 550) configured to modify or replace the instructions based on a loadable software part; a data interface; a loadable software part memory (126, 544); and a switch (124, 560) coupled to the data interface, to the loadable software part memory, and to the software loader such that: while the switch is in a first position, a first data path (164, 122) between the data interface and the loadable software part memory is enabled and a second data path Z r (166, 128) between the loadable software part memory and the software loader is disabled, and while the switch is in a second position, the second data path is enabled and the first data path is disabled. at least one programmable computing device, the at least one programmable computing device comprising a memory configured to store instructions that are executable by a processor; a software loader (150, 550) configured to modify or replace the instructions based on a loadable software part; a data interface; a loadable software part memory (126, 544); and a switch (124, 560) coupled to the data interface, to the loadable software part memory, and to the software loader such that: while the switch is in a first position, a first data path (164, 122) between the data interface and the loadable software part memory is enabled and a second data path Z r (166, 128) between the loadable software part memory and the software loader is disabled, and while the switch is in a second position, the second data path is enabled and the first data path is disabled.
A method for preparing an electroconductive mayenite type compound, which comprises a step of subjecting a precursor to heat treatment, wherein the precursor contains Ca and/or Sr, and Al, the molar ratio of (a total of CaO and SrO: Al 2 O 3) is from (12.6: 6.4) to (11.7: 7.3) as calculated as oxides, the total content of CaO, SrO and Al 2 O 3 in the precursor is at least 50 mol%, the precursor is a vitreous or crystalline material; and wherein the heat treatment is carried out by holding a mixture of the precursor, and carbon in such an amount that the rate of a number of carbon atoms to a total number of Ca, Sr and Al atoms in the precursor is from 0.2 to 11% or aluminum in such an amount that the rate of a number of aluminum atoms to a total number of Ca, Sr and Al atoms in the precursor is from 0.65 to 7.4%, at 600-1,415°C in an inert gas or vacuum atmosphere with an oxygen partial pressure of at most 10 Pa.
A compound of general formula: wherein: R 1 is hydrogen, phenyl, C 1-6 alkyl which can be further optionally substituted with R 3 R 3 is 5- or 6- membered aromatic or heteroaromatic ring system which can be further optionally substituted with benzyl or hydroxy; R 2 is OR 4, NHR 4 R 4 is hydrogen, C 1-6 alkyl or benzyl n is an integer from 1 to 12 or a salt thereof. R 1 is hydrogen, phenyl, C 1-6 alkyl which can be further optionally substituted with R 3 R 3 is 5- or 6- membered aromatic or heteroaromatic ring system which can be further optionally substituted with benzyl or hydroxy; R 2 is OR 4, NHR 4 R 4 is hydrogen, C 1-6 alkyl or benzyl n is an integer from 1 to 12
A method of assisting vehicle guidance over terrain, the method including: training at least one first classifier using a first set of terrain classifier training data representative of a Now field of the vehicle, such that the at least one first classifier is trained to output at least one probability value usable to classify terrain; obtaining a second set of terrain classifier training data comprising image data captured from a Near field of the vehicle and data indicative of vehicle state characteristics sensed when the vehicle passes over terrain represented in the image data captured from the Near field; using the at least one trained first classifier to generate an output comprising at least one probability value usable to classify terrain using the data indicative of vehicle state characteristics in the second set of training data; and using a Regression Model technique to associate said output of the at least one trained first classifier using the second set of training data with data derived from the image data in the second set of training data thereby to train a second classifier to output a probability value useable to classify terrain represented in image data captured in a Near field of the vehicle. training at least one first classifier using a first set of terrain classifier training data representative of a Now field of the vehicle, such that the at least one first classifier is trained to output at least one probability value usable to classify terrain; obtaining a second set of terrain classifier training data comprising image data captured from a Near field of the vehicle and data indicative of vehicle state characteristics sensed when the vehicle passes over terrain represented in the image data captured from the Near field; using the at least one trained first classifier to generate an output comprising at least one probability value usable to classify terrain using the data indicative of vehicle state characteristics in the second set of training data; and using a Regression Model technique to associate said output of the at least one trained first classifier using the second set of training data with data derived from the image data in the second set of training data thereby to train a second classifier to output a probability value useable to classify terrain represented in image data captured in a Near field of the vehicle.
A method for treating acid mine drainage, the method including mixing acid mine drainage and alkaline tailings from a gold recovery process, thereby to neutralize the acid mine drainage.
A method for producing nitrogen-doped quartz glass in which a SiO 2 base product is provided in the form of synthetically produced SiO 2 grains or in the form of a porous semifinished product made from the SiO 2 grains and the SiO 2 base product is processed into the quartz glass with the nitrogen chemically bound therein in a hot process in an atmosphere containing a reaction gas containing nitrogen, characterized in that a nitrogen oxide is used as the nitrogen-containing reaction gas, and that a SiO 2 base product is used that in the hot process is treated a treatment temperature range between 650°C and 1,000°C and in an atmosphere having a nitrogen oxide content between 5 and 20 vol. %, said SiO 2 base product has a concentration of oxygen deficient defects of at least 2 x 10 15 cm -3 but less than 2 x 10 19, wherein the SiO 2 base product comprises SiO 2 particles having a mean particle size in the range of 1 μm and 200 μm (D 50 value) and wherein the nitrogen content of the quartz glass is set to a mean value in the range between 1 wt. ppm and 3000 wt. ppm.
Method for generating a representation of a finger print minutiae information comprising the steps of: - obtaining said minutiae information; - obtaining at least one reference point P in said finger print; - determining a coordinate system based on the said reference point P; characterized by the steps of determining sampled minutia function values of said minutiae information in the said coordinate system, wherein each sampled minutia function value contains at least the minutiae location and orientation angle with respect to said reference point P embedded using a pre-defined set n of spatial filters F n; - generating a vector representation based on said sampled function values. - obtaining said minutiae information; - obtaining at least one reference point P in said finger print; - determining a coordinate system based on the said reference point P; characterized by the steps of determining sampled minutia function values of said minutiae information in the said coordinate system, wherein each sampled minutia function value contains at least the minutiae location and orientation angle with respect to said reference point P embedded using a pre-defined set n of spatial filters F n; - generating a vector representation based on said sampled function values.
A method of implementing coordinated testing programmed in a memory of a device comprising: at a controller: a. performing a pre-test analysis using a verification script; b. launching a test using a run script; c. monitoring the test using a monitoring script; and d. performing post-processing analysis using an analysis script, wherein the verification script, the monitoring script and the analysis script utilize the run script as a run description data file to specify a testing flow, load driver function information and from which of a plurality of load drivers to retrieve data; launching load driver instances at a plurality of load generators, simulating loads; at a load balancer, distributing the simulated loads to web servers wherein the monitoring script monitors the load drivers, and indicates what the load drivers are doing during the test, monitors a test run length and analyzes specific features being tested. at a controller: a. performing a pre-test analysis using a verification script; b. launching a test using a run script; c. monitoring the test using a monitoring script; and d. performing post-processing analysis using an analysis script, wherein the verification script, the monitoring script and the analysis script utilize the run script as a run description data file to specify a testing flow, load driver function information and from which of a plurality of load drivers to retrieve data; launching load driver instances at a plurality of load generators, simulating loads; a. performing a pre-test analysis using a verification script; b. launching a test using a run script; c. monitoring the test using a monitoring script; and d. performing post-processing analysis using an analysis script, wherein the verification script, the monitoring script and the analysis script utilize the run script as a run description data file to specify a testing flow, load driver function information and from which of a plurality of load drivers to retrieve data; launching load driver instances at a plurality of load generators, simulating loads; at a load balancer, distributing the simulated loads to web servers wherein the monitoring script monitors the load drivers, and indicates what the load drivers are doing during the test, monitors a test run length and analyzes specific features being tested.
A method implemented using one or more processors, comprising: capturing a spoken utterance at a microphone to generate audio data, wherein the spoken utterance is spoken in a first natural language; performing speech recognition processing on the audio data to generate speech-recognition output; applying the speech-recognition output as input across a trained machine translation model to generate output, wherein the output is indicative of a canonical translation of the speech-recognition output from the first natural language to a second natural language; determining an intent conveyed by the spoken utterance based on the canonical translation; and performing one or more responsive actions based on the intent; wherein the machine translation model was trained to map each of a plurality of semantically-related phrases in the first natural language to the same canonical translation in the second natural language, wherein the machine translation model was trained by: training the machine translation model using training data that was generated based on the plurality of semantically-related phrases in the first natural language and the canonical translation in the second natural language. capturing a spoken utterance at a microphone to generate audio data, wherein the spoken utterance is spoken in a first natural language; performing speech recognition processing on the audio data to generate speech-recognition output; applying the speech-recognition output as input across a trained machine translation model to generate output, wherein the output is indicative of a canonical translation of the speech-recognition output from the first natural language to a second natural language; determining an intent conveyed by the spoken utterance based on the canonical translation; and performing one or more responsive actions based on the intent; wherein the machine translation model was trained to map each of a plurality of semantically-related phrases in the first natural language to the same canonical translation in the second natural language, wherein the machine translation model was trained by: training the machine translation model using training data that was generated based on the plurality of semantically-related phrases in the first natural language and the canonical translation in the second natural language.
An effective amount of a diketopiperazine for use in the treatment of a T-cell mediated pulmonary disease wherein the diketopiperazine is selected from the group consisting of DA-DKP, MR-DKP, GL-DKP, AP-DKP and YE-DKP.
A system for detecting an interruption of the connection between an extracorporeal blood treatment apparatus, preferably a dialyser, and an intracorporeal patient blood circulation to which the extracorporeal blood treatment apparatus is connectable or connected via a fluid connection means, preferably a needle or cannula, being attachable or attached to a first venous fluid line, preferably to the line end thereof, and via a second arterial fluid line, comprising a line shut-off for blocking the first venous fluid line arranged between the blood treatment apparatus and the connection means, at least one blood pump arranged in the second arterial fluid line and preferably configured for continuous blood delivery also during shut-off of the first venous fluid line by the line shut-off, at least one pressure sensor (33, 41) arranged in the first fluid line and/or the second fluid line for measuring the pressure prevailing in the first and/or second fluid line, a control and evaluation unit adapted to evaluate the pressure curve in time of the pressure (PA, PV) measured by the pressure sensor (33, 41) during shut-off of the first fluid line so as to detect herefrom an interruption or disturbance of the connection between the first fluid connection means and the patient blood circulation, for which the control and evaluation unit is configured to determine a variable representative of the pressure curve from the pressure curve, compare the representative variable to a preferably previously stored reference value or range of reference values, and corresponding to the result of comparison conclude the presence of an interruption or disturbance of the connection of the first venous fluid line between the blood treatment apparatus and the patient circulation, wherein the pressure sensor is arranged in the first fluid line between the line shut-off and the fluid connection means, characterized in that the control and evaluation unit determines an approximated polynomial function, especially of the 1 st or 2 nd order, of the pressure curve, determines a measure of scale, especially variance or mean error, from deviations of individual values of the pressure curve from the approximated polynomial function as the representative variable, and concludes the interruption or disturbance of the connection, if the representative variable deviates from the reference value preferably by no more than a predetermined amount, in particular underruns the same. determine a variable representative of the pressure curve from the pressure curve, compare the representative variable to a preferably previously stored reference value or range of reference values, and corresponding to the result of comparison conclude the presence of an interruption or disturbance of the connection of the first venous fluid line between the blood treatment apparatus and the patient circulation, wherein
A bG-CSF polypeptide consisting of the amino acid sequence of SEQ.ID.NO: 1 or SEQ.ID.NO: 2 wherein the amino acid at position 133 of SEQ.ID.NO: 1, or the corresponding amino acid of SEQ.ID.NO:2, is substituted with the non-naturally encoded amino acid para-acetylphenylalanine, wherein the non-naturally encoded amino acid is bonded to a water soluble polymer comprising a poly (ethylene) glycol moiety; and the water soluble polymer has a molecular weight of 20 KDa.
A method for clocking data processing modules (2, 4, 6) which require differing average clock frequencies and for transferring data between the modules comprising the steps of providing a common clock signal to clock gating circuitry associated with each module, deleting clock pulses provided from the common clock signal to the associated clock gating circuitry (22, 20) in dependence on the clocking frequency required by each module, and applying clock pulses to modules between which data is to be transferred at times consistent with the data transfer to be performed, wherein the method further comprises the steps of performing a handshake operation which is performed between modules between which data is to be transferred and wherein the handshake operation Is gated such that data transfer is inhibited when appropriate patterns of clock pulses are not available.
A communications apparatus comprising: a data communicating unit configured to perform data communication; and a frequency channel detecting unit configured to (i) detect, from a signal with signals for corresponding frequency channels overlapped and having different pulse amplitudes, a frequency channel indicated by a time interval between two pulses in a wake-up signal included in one of the frequency channels and (ii) cause said data communicating unit to perform the data communication over the detected frequency channel, wherein the frequency channel detecting unit is a pulse interval detecting unit comprising a pulse detection unit, a timer, and an interval determining unit configured to determine intervals between pulses having substantially the same amplitudes based on the time period lying between two pulse edges and on the amplitude detected by the pulse detection unit. a data communicating unit configured to perform data communication; and a frequency channel detecting unit configured to (i) detect, from a signal with signals for corresponding frequency channels overlapped and having different pulse amplitudes, a frequency channel indicated by a time interval between two pulses in a wake-up signal included in one of the frequency channels and (ii) cause said data communicating unit to perform the data communication over the detected frequency channel,
A moisturizing fabric material comprising a moisturizing formula bonded to a polymeric fabric material, the moisturizing formula comprising a moisturizer and a bonding agent, the moisturizer comprising: 5-50% by weight plant oil, 0.2-10% by weight plant extract, and 0.1-20% by weight emulsifier, wherein the polymeric fabric material is treated with the moisturizing formula and subjected to a temperature above 180 °C, and the bonding agent bonds the moisturizer to the polymeric fabric material.
A composition comprising an effective amount of an α2 adrenergic receptor agonist and a pharmaceutically acceptable carrier for use in preventing skin tumor formation in a subject, wherein the α2 adrenergic receptor agonist is selected from the group consisting of: brimonidine, (8-Bromo-quinoxalin-6-yl)-(4,5-dihydro-1H-imidazol-2-yl)-amine, (8-Bromo-quinoxalin-5-yl)-(4,5-dihydro-1H-imidazol-2-yl)-amine, (5-Bromo-3-methyl-quinoxalin-6-yl)-(4,5-dihydro-1H-imidazol-2-yl)-amine, (5-Bromo-2-methoxy-quinoxalin-6-yl)-(4,5-dihydro-1H-imidazol-2-yl)-amine, and their pharmaceutically acceptable salts.