mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising:receiving, by a device, historical cloud data associated with resources of a cloud computing environment,the historical cloud data including quantities of resources of the cloud computing environment actually used by the customers, and the resources of the cloud computing environment comprising a plurality of virtual machines;receiving, by the device, historical customer data associated with requested resource usage by customers of the cloud computing environment,the historical customer data including quantities of resources of the cloud computing environment requested by the customers;determining, by the device, a usage growth profile based on the historical cloud data and the historical customer data,wherein the usage growth profile groups the historical cloud data and the historical customer data based on a quantity of transient virtual machines utilized by the customers, a quantity of virtual machines continuously being utilized, a quantity of continuously unutilized virtual machines, and/or a quantity of times virtual machines change from one customer to another customer;determining, by the device and based on the historical cloud data and the historical customer data, usage deviation data indicating deviations between actual resource usage and requested resource usage of the cloud computing environment;training, by the device, a machine learning model, with the usage growth profile and the usage deviation data, to generate a trained machine learning model which determines projected resource usage data based on a request for a new resource from the cloud computing environment;receiving, by the device, a request for new resource usage by a customer associated with the cloud computing environment;processing, by the device, the request for the new resource usage, with the trained machine learning model, to generate projected resource usage data,wherein the projected resource usage data includes data identifying a projected resource usage of the cloud computing environment and by the customer; and performing, by the device, one or more actions based on the projected resource usage data, wherein the performing one or more actions includes providing, to a resource, instructions that cause the at least one of the resources to reboot, power off, or power on based on the projected resource usage data.
An anatomical drape for covering a treatment area of an anatomical part, the drape comprising an elastomeric material capable of conforming to the contours of the anatomical part and including a curing agent (2e; 7) selectively incorporated within the drape structure, wherein activation of the curing agent selectively constrains the elastic properties of the stretchable drape material to at least partially set the drape material in a fixed configuration conforming to the anatomical part.
A barrel (200, 400, 910) for an auger comprising an interior portion having angular sections of material welded together, wherein each angular section has a first sidewall portion and a second sidewall portion each connected to and extending outwardly from a bottom curved wall portion, each first and second sidewall portions extending outwardly away from the respective other of the first and second sidewall portions, wherein the angular sections of material form ribs (610, 810, 915) in the interior portion, characterized by a middle flange that is welded to the ribs of the barrel, wherein the flange is only welded at the ribs.
An extractor cleaning machine comprising: a base movable along a surface to be cleaned, the base including a distribution nozzle and a suction nozzle; a suction source supported by the base and in fluid communication with the suction nozzle; a pump in fluid communication with the distribution nozzle, the pump operable to deliver cleaning fluid to the distribution nozzle characterized by the pump having a first operating speed and a second operating speed, both the first and second operating speeds being non-zero operating speeds, and the second operating speed being higher than the first operating speed; a manually operable actuator (130, 134), wherein manually operating the actuator changes the pump from the first operating speed to the second operating speed; and a normally-closed valve between the pump and the distribution nozzle, wherein manually operating the actuator opens the valve and allows cleaning fluid to flow from the pump to the distribution nozzle. a base movable along a surface to be cleaned, the base including a distribution nozzle and a suction nozzle; a suction source supported by the base and in fluid communication with the suction nozzle; a pump in fluid communication with the distribution nozzle, the pump operable to deliver cleaning fluid to the distribution nozzle characterized by the pump having a first operating speed and a second operating speed, both the first and second operating speeds being non-zero operating speeds, and the second operating speed being higher than the first operating speed; a manually operable actuator (130, 134), wherein manually operating the actuator changes the pump from the first operating speed to the second operating speed; and a normally-closed valve between the pump and the distribution nozzle, wherein manually operating the actuator opens the valve and allows cleaning fluid to flow from the pump to the distribution nozzle.
A method for providing supply power to a power amplifier, the method comprising: initiating an envelope tracking, ET, mechanism to track changes in amplitudes of a radio frequency, RF, signal being received by the power amplifier; providing an instantaneous amplitude of the RF signal to a first configuration of a voltage controlled power converter from the ET mechanism; determining a bandwidth of the radio frequency, RF, signal; calculating an average amplitude of the RF signal; in response to at least one of (a) the RF signal bandwidth being at least equal to a threshold bandwidth and (b) the average amplitude of the RF signal being less than a threshold value: temporarily deactivating the ET mechanism; activating an average power tracking, APT, mechanism to trigger a power supply to provide power using the average amplitude of the RF signal; providing, to a second configuration of a voltage controlled power converter, the average amplitude of the RF signal; and providing to the power amplifier a power supply voltage having amplitude variations that are determined based on which tracking mechanism from among the ET mechanism and the APT mechanism is activated. initiating an envelope tracking, ET, mechanism to track changes in amplitudes of a radio frequency, RF, signal being received by the power amplifier; providing an instantaneous amplitude of the RF signal to a first configuration of a voltage controlled power converter from the ET mechanism; determining a bandwidth of the radio frequency, RF, signal; calculating an average amplitude of the RF signal; in response to at least one of (a) the RF signal bandwidth being at least equal to a threshold bandwidth and (b) the average amplitude of the RF signal being less than a threshold value: temporarily deactivating the ET mechanism; activating an average power tracking, APT, mechanism to trigger a power supply to provide power using the average amplitude of the RF signal; providing, to a second configuration of a voltage controlled power converter, the average amplitude of the RF signal; and temporarily deactivating the ET mechanism; activating an average power tracking, APT, mechanism to trigger a power supply to provide power using the average amplitude of the RF signal; providing, to a second configuration of a voltage controlled power converter, the average amplitude of the RF signal; and providing to the power amplifier a power supply voltage having amplitude variations that are determined based on which tracking mechanism from among the ET mechanism and the APT mechanism is activated.
A method for refined palm oil production with reduced 3-MCPD formation, the method comprising, (a) premixing a palm oil with an acid to chelate metals and form a reaction mixture; and (b) subjecting the reaction mixture obtained in step (a) to hydrodynamic cavitation mixing for less than 0.5 seconds. (a) premixing a palm oil with an acid to chelate metals and form a reaction mixture; and (b) subjecting the reaction mixture obtained in step (a) to hydrodynamic cavitation mixing for less than 0.5 seconds.
A process for the production of a mixture of methylene diphenyl diisocyanate isomers, comprising: forming methylene diphenyl diamines and polyamines of the diphenylmethane series by reacting aniline and formaldehyde in the presence of an acid catalyst; phosgenating the methylene diphenyl diamines and polyamines of the diphenylmethane series to produce a mixture of the MDI isomers and polymeric MDI; separating from the mixture of the MDI isomers and the polymeric MDI a first fraction containing at least 98% by weight of the MDI isomers comprising at least 52% by weight of 2,4' -MDI and 2,2' -MDI based on the total weight of the first fraction wherein the first fraction includes a content of 4,4'- MDI of from 5% to 48% by weight, a content of 2,4'-MDI of from 46% to 95% by weight, and a content of 2,2'-MDI of from 0.01 % to 20% by weight, wherein the separation uses a distillation column and a side rectifier; separating from the first fraction a second fraction containing at least 99% by weight of the MDI isomers comprising at least 52% by weight of 2,4'-MDI based on the total weight of the second fraction wherein the second fraction has a content of 4,4'-MDI of from 5% to 48% by weight, a content of 2,4' -MDI of from 52% to 95% by weight, and a content of 2,2' -MDI of from 0.00% to 0.80% by weight; separating from the mixture after the removal of the first fraction a third fraction having a content of 4,4'-MDI of at least 98.5% by weight based on the total weight of the third fraction. forming methylene diphenyl diamines and polyamines of the diphenylmethane series by reacting aniline and formaldehyde in the presence of an acid catalyst; phosgenating the methylene diphenyl diamines and polyamines of the diphenylmethane series to produce a mixture of the MDI isomers and polymeric MDI; separating from the mixture of the MDI isomers and the polymeric MDI a first fraction containing at least 98% by weight of the MDI isomers comprising at least 52% by weight of 2,4' -MDI and 2,2' -MDI based on the total weight of the first fraction wherein the first fraction includes a content of 4,4'- MDI of from 5% to 48% by weight, a content of 2,4'-MDI of from 46% to 95% by weight, and a content of 2,2'-MDI of from 0.01 % to 20% by weight, wherein the separation uses a distillation column and a side rectifier; separating from the first fraction a second fraction containing at least 99% by weight of the MDI isomers comprising at least 52% by weight of 2,4'-MDI based on the total weight of the second fraction wherein the second fraction has a content of 4,4'-MDI of from 5% to 48% by weight, a content of 2,4' -MDI of from 52% to 95% by weight, and a content of 2,2' -MDI of from 0.00% to 0.80% by weight; separating from the mixture after the removal of the first fraction a third fraction having a content of 4,4'-MDI of at least 98.5% by weight based on the total weight of the third fraction.
A construction unit for a compact heating installation with two heating circuits which can be affected by a common circulation pump, with a switch-over valve for incorporating the one or the other heating circuit into a delivery circuit of the circulation pump, wherein the switch-over valve comprises a pivot lever, at whose one end a shut-off body and at whose other end a drive for actuating the pivot lever engages, wherein the drive in the construction unit has an operational position for the designated operation, characterised in that two positions are provided in the construction unit, the operational position and one assembly position for the drive, in which the drive or at least a part thereof can be installed into the construction unit and removed from it.
A method of forming a memory cell, comprising: forming a resistance variable memory cell material on a first electrode and a wall of a via; forming a first dielectric material (120, 120-1, 120-2) on the resistance variable memory cell material; removing a portion of the first dielectric material (120, 120-1, 120-2) such that a portion of the resistance variable memory cell material is exposed; forming a second electrode on a first exposed portion of the resistance variable memory cell material and third electrode on a second exposed portion of the resistance variable memory cell material; and forming a spacer material on at least a portion of the second electrode, the third electrode, and the first dielectric material (120, 120-1, 120-2); wherein the method includes removing at least a portion of the spacer material between the second and third electrodes (122-1, 122-2), at least a portion of the first dielectric material (120, 120-1, 120-2) within the via, and at least a portion of the resistance variable memory cell material formed on the first electrode to form a first and a second resistance variable memory cell structure; and wherein forming the first and the second resistance variable memory cell structures includes forming a first arcuate resistance variable region corresponding to the first resistance variable memory cell structure and a second arcuate resistance variable region corresponding to the second resistance variable memory cell structure. forming a resistance variable memory cell material on a first electrode and a wall of a via; forming a first dielectric material (120, 120-1, 120-2) on the resistance variable memory cell material; removing a portion of the first dielectric material (120, 120-1, 120-2) such that a portion of the resistance variable memory cell material is exposed; forming a second electrode on a first exposed portion of the resistance variable memory cell material and third electrode on a second exposed portion of the resistance variable memory cell material; and forming a spacer material on at least a portion of the second electrode, the third electrode, and the first dielectric material (120, 120-1, 120-2); wherein the method includes removing at least a portion of the spacer material between the second and third electrodes (122-1, 122-2), at least a portion of the first dielectric material (120, 120-1, 120-2) within the via, and at least a portion of the resistance variable memory cell material formed on the first electrode to form a first and a second resistance variable memory cell structure; and wherein forming the first and the second resistance variable memory cell structures includes forming a first arcuate resistance variable region corresponding to the first resistance variable memory cell structure and a second arcuate resistance variable region corresponding to the second resistance variable memory cell structure.
An antibody or antigen-binding portion thereof which binds to PSMA and comprises a heavy chain variable domain and a light chain variable domain, wherein the heavy chain variable domain comprises the sequence given in SEQ ID NO: 5 and the light chain variable domain comprises the sequence given in SEQ ID NO: 6.
An aircraft engine fan assembly, comprising: a spinner; and a blade lock retainer coupled to an aft flange of the spinner, the blade lock retainer comprising: an annular ring portion; an outer retainer tab portion, disposed on an outer circumference of the annular ring portion, oriented substantially perpendicular to the annular ring portion, and extending in an aft direction from the annular ring portion; and an inner retainer tab portion, disposed on an inner circumference of the annular ring portion and radially aligned with the outer retainer tab portion, oriented substantially perpendicular to the annular ring portion, and extending in a forward direction from the annular ring portion; wherein the blade lock retainer is formed from sheet metal; and wherein the spinner comprises a spacer portion integral to the spinner and disposed on an aft face of the aft flange, the spacer portion being disposed between the aft face of the aft flange and the blade lock retainer. a spinner; and a blade lock retainer coupled to an aft flange of the spinner, the blade lock retainer comprising: an annular ring portion; an outer retainer tab portion, disposed on an outer circumference of the annular ring portion, oriented substantially perpendicular to the annular ring portion, and extending in an aft direction from the annular ring portion; and an inner retainer tab portion, disposed on an inner circumference of the annular ring portion and radially aligned with the outer retainer tab portion, oriented substantially perpendicular to the annular ring portion, and extending in a forward direction from the annular ring portion; wherein an annular ring portion; an outer retainer tab portion, disposed on an outer circumference of the annular ring portion, oriented substantially perpendicular to the annular ring portion, and extending in an aft direction from the annular ring portion; and an inner retainer tab portion, disposed on an inner circumference of the annular ring portion and radially aligned with the outer retainer tab portion, oriented substantially perpendicular to the annular ring portion, and extending in a forward direction from the annular ring portion; wherein the blade lock retainer is formed from sheet metal; and wherein the spinner comprises a spacer portion integral to the spinner and disposed on an aft face of the aft flange, the spacer portion being disposed between the aft face of the aft flange and the blade lock retainer.
An apparatus (50,150) for supporting a convolutely wound log of web material during cutting of the convolutely wound log, the apparatus comprising: a support frame (86, 186), a bottom support link (82,182) being operatively coupled to the support frame (86,186), the bottom support link (82,182)_having a guide surface adapted to engage a region of a periphery of the convolutely wound log when the log is directed into the apparatus (50,150), and a flexible member (90,92,92',192a,192b) operatively coupled to a distal end of the bottom support link (82,182), the flexible member (90,92,92',92a,192b) extending tangentially from the guide surface of the bottom support link and curving away from the bottom support link so that a portion of the flexible member (90,92,92',92a,192b) is spaced away from the guide surface of the bottom support link, the spaced away portion of the flexible member (90,92,92', 192a,192b) being adapted to engage a further region of the periphery of the convolutely wound log when the log is directed into the apparatus, the spaced away portion of the flexible member (90,92,92', 192a,192b together with the guide surface of the bottom support link (82,182) at least in part defining a support surface for supporting the convolutely wound log when the log is directed into the apparatus (50,150). a support frame (86, 186), a bottom support link (82,182) being operatively coupled to the support frame (86,186), the bottom support link (82,182)_having a guide surface adapted to engage a region of a periphery of the convolutely wound log when the log is directed into the apparatus (50,150), and a flexible member (90,92,92',192a,192b) operatively coupled to a distal end of the bottom support link (82,182), the flexible member (90,92,92',92a,192b) extending tangentially from the guide surface of the bottom support link and curving away from the bottom support link so that a portion of the flexible member (90,92,92',92a,192b) is spaced away from the guide surface of the bottom support link, the spaced away portion of the flexible member (90,92,92', 192a,192b) being adapted to engage a further region of the periphery of the convolutely wound log when the log is directed into the apparatus, the spaced away portion of the flexible member (90,92,92', 192a,192b together with the guide surface of the bottom support link (82,182) at least in part defining a support surface for supporting the convolutely wound log when the log is directed into the apparatus (50,150).
A compound having the structure of Formula: wherein: R 1 is -N(R 3)(R 5) or -NH(R 4); each R 2 is independently selected from halogen, C 1-6 alkyl, -CN, C 1-6 haloalkyl, and -OR 6; R 3 is -CH 2 CO 2 H, -CH 2 CH 2 CO 2 H, or -CH(CH 3)CO 2 H; R 4 is -(CH 2) m -CO 2 H; R 5 is H or C 1-3 alkyl; each R 6 is independently selected from H, C 1-6 alkyl, and C 1-6 haloalkyl; n is 0, 1, 2, 3, or 4; and m is 3; or a pharmaceutically acceptable salt thereof. R 1 is -N(R 3)(R 5) or -NH(R 4); each R 2 is independently selected from halogen, C 1-6 alkyl, -CN, C 1-6 haloalkyl, and -OR 6; R 3 is -CH 2 CO 2 H, -CH 2 CH 2 CO 2 H, or -CH(CH 3)CO 2 H; R 4 is -(CH 2) m -CO 2 H; R 5 is H or C 1-3 alkyl; each R 6 is independently selected from H, C 1-6 alkyl, and C 1-6 haloalkyl; n is 0, 1, 2, 3, or 4; and m is 3;
Method for manufacturing and/or mounting an electrical machine, in particular a starting mechanism as a starter, for starting a combustion engine, comprising an armature shaft, which is at one end floating mounted in an commutator bearing, comprising the steps: moving an armature shaft section (17b, 17c), defined by an armature shaft shoulder (117b, 117c), into the commutator bearing, so that said armature shaft section at least partly protrudes from the commutator bearing, wherein an abutment device is arranged at and/or on said armature shaft section and is abutted against one side of the commutator bearing characterized in, that said armature shaft is moved against and relatively to said abutment device by an axial movement of the abutment device along the armature shaft, until an axial play between 0.05 mm and 1.75 mm, preferably between 0.20 mm and 0.6 mm, between said armature shaft shoulder and said commutator bearing is reached, wherein axial moving said abutment device and/or said armature shaft shoulder is realized by rotating said armature shaft so that a screw-motion is realized and wherein the screw-motion realized by rotating of the abutment device is blocked by an anti-rotating device.
A method comprising: providing a first chip comprising a first circuit element; forming a first aluminum interconnect pad on a first surface of the first chip so that the first aluminum interconnect pad is electrically connected to the first circuit element; forming a first titanium nitride barrier layer on the first aluminum interconnect pad; providing a second chip comprising a second circuit element; forming an indium bump bond; and joining the first chip to the second chip with the indium bump bond so that the first circuit element is electrically connected to the second circuit element. providing a first chip comprising a first circuit element; forming a first aluminum interconnect pad on a first surface of the first chip so that the first aluminum interconnect pad is electrically connected to the first circuit element; forming a first titanium nitride barrier layer on the first aluminum interconnect pad; providing a second chip comprising a second circuit element; forming an indium bump bond; and joining the first chip to the second chip with the indium bump bond so that the first circuit element is electrically connected to the second circuit element.