mhurhangee/ep-ind-claims huggingface dataset:
A method for tracking virtual machine, VM, usage, by a client machine, comprising: deploying an instance of a VM; generating an identification for the instance of the virtual machine; and requesting a name server lookup from a tracker server specified by a tracker IP address, wherein the name server lookup comprises the identification; wherein: the requested name server lookup is configured to cause the tracker server to record a startup of the instance of the VM to determine a number of times the instance of the virtual machine has been deployed by the client machine, and the name server lookup is requested in response to execution of a name server lookup command included in an image of the VM that is executed in deploying the instance of the VM. deploying an instance of a VM; generating an identification for the instance of the virtual machine; and requesting a name server lookup from a tracker server specified by a tracker IP address, wherein the name server lookup comprises the identification; wherein: the requested name server lookup is configured to cause the tracker server to record a startup of the instance of the VM to determine a number of times the instance of the virtual machine has been deployed by the client machine, and the name server lookup is requested in response to execution of a name server lookup command included in an image of the VM that is executed in deploying the instance of the VM. the requested name server lookup is configured to cause the tracker server to record a startup of the instance of the VM to determine a number of times the instance of the virtual machine has been deployed by the client machine, and the name server lookup is requested in response to execution of a name server lookup command included in an image of the VM that is executed in deploying the instance of the VM.
A high-strength multiphase steel tinned raw plate, having a chemical composition comprising, by mass percentage, C: 0.081-0.14%, Mn: 0.2-0.8%, Al: 0.01-0.09%, P: 0.01-0.03%, N: 0.002-0.015%, further comprising one or more of B: 0.001-0.005%, Cr: 0.005-0.05%, Ti: 0.001-0.1%, Nb: 0.001-0.2%, Cu: 0.005-0.03%, Mo: 0.001-0.008%, and a balance of Fe and unavoidable impurities, wherein the following relationship is met: 0.21%≤Mn+1.3Cr+3.2Mo+0.5Cu≤0.91%, the high-strength multiphase steel tinned raw plate has a structure consisting of ferrite grains, pearlite, martensite and cementite particles, the ferrite in the structure of the high-strength multiphase steel tinned raw plate has a grain size of ≤7 μm, the pearlite + martensite + cementite particles in the structure of the high-strength multiphase steel tinned raw plate have a volume fraction of 5-20 %, the martensite in the structure of the high-strength multiphase steel tinned raw plate has a volume fraction of 1-5 % and carbon solid solution content of ≥0 07/,. wherein, after baking, at 150° - 300°C for 15-60 min, the high-strength multiphase steel tinned raw plate has a yield strength Rp0.2≥(400+12×DCR)MPa, and an elongation A≥(25-1.2×DCR)%, wherein DCR represents a reduction rate of double cold reduction, wherein 5%≤DCR≤18%.
False twist device for an open-end spinning device to introduce a false twist in a yarn produced in an open-end spinning device, wherein the false twist device has a largely tubular corpus and several false twist edges arranged behind one another in yarn draw-off direction, inclined by an angle (α) in the corpus with regard to the yarn draw-off direction, wherein the several false twist edges protrude in such a way into the interior of the tubular corpus that the yarn on each one of the false twist edges experiences a deflection, wherein the false twist device has at least three false twist edges characterized in that the at least three false twist edges are arranged offset in such a way in circumferential direction in the corpus, that the yarn experiences a spatial, helical deflection simultaneously compared to its regular yarn draw-off direction through the successive deflections on the at least three false twist edges.
A method for encoding an input sequence of symbols, the symbols belonging to a finite alphabet, wherein a context model specifies a predefined probability set, and wherein each symbol of the input sequence of symbols is assigned a probability from the predefined probability set on the basis of the context model, the method comprising: selecting a new probability set, wherein the new probability set is not identical to the predefined probability set and is a subset of the predefined probability set; assigning each of the symbols of the input sequence a respective probability from the new probability set based upon a mapping, wherein the mapping maps each of the probabilities of the predefined probability set to a respective one of the probabilities from the new probability set, wherein assigning each of the symbols includes defining the mapping by determining, for each probability of the predefined probability set, to which one of the probabilities from the new probability set it is mapped, and wherein determining is based on selecting the one of the probabilities from the new probability set that minimizes a relative entropy expression; and entropy encoding the input sequence of symbols, wherein the entropy encoding includes grouping symbols on the basis of their respective assigned probabilities from the new probability set. selecting a new probability set, wherein the new probability set is not identical to the predefined probability set and is a subset of the predefined probability set; assigning each of the symbols of the input sequence a respective probability from the new probability set based upon a mapping, wherein the mapping maps each of the probabilities of the predefined probability set to a respective one of the probabilities from the new probability set, wherein assigning each of the symbols includes defining the mapping by determining, for each probability of the predefined probability set, to which one of the probabilities from the new probability set it is mapped, and wherein determining is based on selecting the one of the probabilities from the new probability set that minimizes a relative entropy expression; and entropy encoding the input sequence of symbols, wherein the entropy encoding includes grouping symbols on the basis of their respective assigned probabilities from the new probability set.
A resource selection method for service data transmission, comprising: obtaining, by a terminal, first configuration information, wherein the first configuration information comprises a first service feature parameter and a first resource parameter corresponding to the first service feature parameter; obtaining, by the terminal, to-be-sent service data and a second service feature parameter corresponding to the to-be-sent service data; determining, by the terminal based on the first service feature parameter, the second service feature parameter and the first resource parameter, a second resource parameter for transmitting the to-be-sent service data, wherein the first resource parameter and the second resource parameter each comprise a first time parameter or a value range parameter of a first time parameter; selecting, by the terminal based on the second resource parameter, an available resource for transmitting the to-be-sent service data; and transmitting, by the terminal, the to-be-sent service data by using the available resource. obtaining, by a terminal, first configuration information, wherein the first configuration information comprises a first service feature parameter and a first resource parameter corresponding to the first service feature parameter; obtaining, by the terminal, to-be-sent service data and a second service feature parameter corresponding to the to-be-sent service data; determining, by the terminal based on the first service feature parameter, the second service feature parameter and the first resource parameter, a second resource parameter for transmitting the to-be-sent service data, wherein the first resource parameter and the second resource parameter each comprise a first time parameter or a value range parameter of a first time parameter; selecting, by the terminal based on the second resource parameter, an available resource for transmitting the to-be-sent service data; and transmitting, by the terminal, the to-be-sent service data by using the available resource.
An organic electroluminescent compound represented by the following formula 1: wherein Ar 1 represents substituted phenyl or a substituted or unsubstituted biphenyl, terphenyl, fluorenyl, phenanthrenyl, triphenylenyl or fluoranthenyl, wherein the substituents are independently selected from the group consisting of deuterium, a halogen, a cyano, a (3- to 30-membered)heteroaryl unsubstituted or substituted with a (C6-C30)aryl, a (C6-C30)aryl unsubstituted or substituted with a (3- to 30-membered)heteroaryl, an amino, a mono- or di-(C1-C30)alkylamino, a mono- or di-(C6-C30)arylamino, a (C1-C30)alkyl(C6-C30)arylamino, a (C6-C30)aryl(C1-C30)alkyl or a (C1-C30)alkyl(C6-C30)aryl; L represents an unsubstituted phenyl; R 1 represents hydrogen, deuterium, a halogen, a cyano, a substituted or unsubstituted (C1-C30)alkyl, or a substituted or unsubstituted (C6-C30)aryl; a represents an integer of 0 to 4; where a represents an integer of 2 or more, each of R 1 may be the same or different. Ar 1 represents substituted phenyl or a substituted or unsubstituted biphenyl, terphenyl, fluorenyl, phenanthrenyl, triphenylenyl or fluoranthenyl, wherein the substituents are independently selected from the group consisting of deuterium, a halogen, a cyano, a (3- to 30-membered)heteroaryl unsubstituted or substituted with a (C6-C30)aryl, a (C6-C30)aryl unsubstituted or substituted with a (3- to 30-membered)heteroaryl, an amino, a mono- or di-(C1-C30)alkylamino, a mono- or di-(C6-C30)arylamino, a (C1-C30)alkyl(C6-C30)arylamino, a (C6-C30)aryl(C1-C30)alkyl or a (C1-C30)alkyl(C6-C30)aryl; L represents an unsubstituted phenyl; R 1 represents hydrogen, deuterium, a halogen, a cyano, a substituted or unsubstituted (C1-C30)alkyl, or a substituted or unsubstituted (C6-C30)aryl; a represents an integer of 0 to 4; where a represents an integer of 2 or more, each of R 1 may be the same or different.
Thermally insulating component for arrangement between two load-bearing building parts (2, 3), having an oblong insulating body (7, 7') and reinforcement bars, wherein the longitudinal direction of at least one reinforcement bar is perpendicular to the longitudinal direction of the insulating body (7, 7') and wherein the insulating body (7, 7') is provided to absorb compressive and shear forces, wherein the reinforcement bars are provided to absorb tensile forces, wherein the insulating body (7, 7') comprises an upper section (4, 4'), a central section and a lower section (6, 6'), wherein the upper section (4, 4'), the central section and the lower section (6, 6') are each designed as closed profiles, and wherein receptacles for the reinforcement bars are provided in the upper section (4, 4'), wherein the upper section (4, 4'), the central section and the lower section (6, 6') are jointly formed in one piece, characterised in that a first thermally insulating auxiliary element for arrangement between the load-bearing building parts (2, 3) is located at the lower section (6, 6'), the first auxiliary element being provided for height adjustment.
A plant pot, comprising: a pot body comprising a pot bottom and a pot wall, said pot wall being connected to the periphery of said pot bottom and surrounding a planting space together, said pot bottom being provided with a water guide hole; a water pipe assembled on said pot bottom of said pot body and partially located in said planting space, said water pipe being connected to said water guide hole; characterised is that, a dividing plate set in said planting space to divide said planting space into a first space and a second space, said dividing plate comprising a plate body, a suction groove and a through hole, said through hole penetrating through opposing top and bottom surfaces of said plate body, said water pipe passing through said through hole, said suction groove extending from the bottom surface of said plate body and being provided with a plurality of cuts that connect said first space and said second space. a pot body comprising a pot bottom and a pot wall, said pot wall being connected to the periphery of said pot bottom and surrounding a planting space together, said pot bottom being provided with a water guide hole; a water pipe assembled on said pot bottom of said pot body and partially located in said planting space, said water pipe being connected to said water guide hole; characterised is that, a dividing plate set in said planting space to divide said planting space into a first space and a second space, said dividing plate comprising a plate body, a suction groove and a through hole, said through hole penetrating through opposing top and bottom surfaces of said plate body, said water pipe passing through said through hole, said suction groove extending from the bottom surface of said plate body and being provided with a plurality of cuts that connect said first space and said second space.
A slotless amorphous ferroalloy electric machine with radial magnetic circuit, comprising: a shell, an end cover, a stator, a rotor and an electric machine shaft; the end cover is mounted to the end of the shell and determines the mounting position of the electric machine shaft together with the shell; the stator is fixedly mounted to the inside of the shell; the rotor is fixedly mounted onto the electric machine shaft and arranged inside of the stator; a radial air gap is arranged between the rotor and the stator; the electric machine shaft and the rotor thereon pass through the internal capacity cavity of the stator, rotatably mounted to the mounting positions determined by the shell and the end cover; the stator consists of a stator iron core and a stator winding; the said stator iron core is a cylinder formed by winding an amorphous ferroalloy strip; the said stator winding is integrally in the shape of a cylinder and fixed on the internal cylindrical surface of the stator iron core; characterized in that: a metal reinforcing sleeve is fixed on the internal surface of the stator winding; the axial length of the metal reinforcing sleeve is identical to that of the stator winding; a radial air gap is arranged between the internal cylindrical surface of the metal reinforcing sleeve and the external surface of the said rotor. a metal reinforcing sleeve is fixed on the internal surface of the stator winding; the axial length of the metal reinforcing sleeve is identical to that of the stator winding; a radial air gap is arranged between the internal cylindrical surface of the metal reinforcing sleeve and the external surface of the said rotor.
A continuous melt polymerization process comprising: melt polymerizing a carbonate compound and dihydroxy compound in the presence of a catalyst composition to form a polymerized polycarbonate, wherein the catalyst composition comprises an alkali catalyst comprising a source of alkali and/or alkaline earth ions and/or a quaternary catalyst; and after a final polymerization, adding a chain scission agent to the polymerized polycarbonate to reduce a molecular weight of the polymerized polycarbonate to form a modified polycarbonate having a desired molecular weight that is less than the molecular weight of the polymerized polycarbonate; wherein the modified polycarbonate has a branching level that is the same or lower than a branching level of the polymerized polycarbonate. melt polymerizing a carbonate compound and dihydroxy compound in the presence of a catalyst composition to form a polymerized polycarbonate, wherein the catalyst composition comprises an alkali catalyst comprising a source of alkali and/or alkaline earth ions and/or a quaternary catalyst; and after a final polymerization, adding a chain scission agent to the polymerized polycarbonate to reduce a molecular weight of the polymerized polycarbonate to form a modified polycarbonate having a desired molecular weight that is less than the molecular weight of the polymerized polycarbonate; wherein the modified polycarbonate has a branching level that is the same or lower than a branching level of the polymerized polycarbonate.
A method for processing random access in a communication system, comprising: receiving, by a base station, a signal which is sent by a user equipment and comprises a first Zadoff-Chu sequence and a second Zadoff-Chu sequence, wherein a d u of the first Zadoff-Chu sequence is smaller than a d u of the second Zadoff-Chu sequence, wherein the d u of the first Zadoff-Chu sequence indicates a shift of an image peak relative to a round trip delay when the frequency offset is 1 T SEQ 1, wherein the T SEQ1 is a time length occupied by the first Zadoff-Chu sequence, wherein the d u of the second Zadoff-Chu sequence indicates a shift of an image peak relative to a round trip delay when the frequency offset is 1 T SEQ 2, wherein the T SEQ2 is a time length occupied by the second Zadoff-Chu sequence; estimating, by the base station, an error range for a round trip delay, RTD, of the user equipment according to the first Zadoff-Chu sequence; and estimating the RTD of the user equipment within the error range for the RTD according to the second Zadoff-Chu sequence. receiving, by a base station, a signal which is sent by a user equipment and comprises a first Zadoff-Chu sequence and a second Zadoff-Chu sequence, wherein a d u of the first Zadoff-Chu sequence is smaller than a d u of the second Zadoff-Chu sequence, wherein the d u of the first Zadoff-Chu sequence indicates a shift of an image peak relative to a round trip delay when the frequency offset is 1 T SEQ 1, wherein the T SEQ1 is a time length occupied by the first Zadoff-Chu sequence, wherein the d u of the second Zadoff-Chu sequence indicates a shift of an image peak relative to a round trip delay when the frequency offset is 1 T SEQ 2, wherein the T SEQ2 is a time length occupied by the second Zadoff-Chu sequence; estimating, by the base station, an error range for a round trip delay, RTD, of the user equipment according to the first Zadoff-Chu sequence; and estimating the RTD of the user equipment within the error range for the RTD according to the second Zadoff-Chu sequence.
A method of machine-to-machine communication, comprising: determining if a received signaling message includes a class identifier identifying the signaling message as a machine-to machine communication; routing at least a message portion of the signaling message to a particular application server based on the class identifier without setting up a communication session if the determining step determines the received signaling message includes the class identifier, the message portion including a device identifier and data, the device identifier identifying a device within a group of devices identified by the class identifier. determining if a received signaling message includes a class identifier identifying the signaling message as a machine-to machine communication; routing at least a message portion of the signaling message to a particular application server based on the class identifier without setting up a communication session if the determining step determines the received signaling message includes the class identifier, the message portion including a device identifier and data, the device identifier identifying a device within a group of devices identified by the class identifier.
A lens barrel comprising: a first lens (L1-L3), a second lens (L5, L8, L9), and a third lens disposed in an optical axis direction; a first lens frame having a cylindrical shape and holding the first lens (L1-L3) disposed on a subject side; a second lens frame (12, 14) holding the second lens (L5, L8, L9); and a third lens frame disposed on an inner circumference side of the first lens frame through a radial clearance and between the first lens frame and the second lens frame (12, 14) and holding the third lens, wherein an outer peripheral surface of the first lens frame includes at least one insertion hole for inserting a jig for eccentricity adjustment of the third lens frame, and at least one of the first lens frame and the third lens frame includes a joint (11ab, 16ca) to fix the third lens frame to the first lens frame and at a position accessible from an outside of the first lens frame in a state where the first to third lens frames (11, 12, 14, 16) are assembled, and characterized in that the first lens frame includes an opening different from the at least one insertion hole, the opening exposes the joint (11ab, 16ca) to the outside of the first lens frame from the subject side in a state where the first to third lens frames (11, 12, 14, 16) are assembled. a first lens (L1-L3), a second lens (L5, L8, L9), and a third lens disposed in an optical axis direction; a first lens frame having a cylindrical shape and holding the first lens (L1-L3) disposed on a subject side; a second lens frame (12, 14) holding the second lens (L5, L8, L9); and a third lens frame disposed on an inner circumference side of the first lens frame through a radial clearance and between the first lens frame and the second lens frame (12, 14) and holding the third lens, wherein an outer peripheral surface of the first lens frame includes at least one insertion hole for inserting a jig for eccentricity adjustment of the third lens frame, and at least one of the first lens frame and the third lens frame includes a joint (11ab, 16ca) to fix the third lens frame to the first lens frame and at a position accessible from an outside of the first lens frame in a state where the first to third lens frames (11, 12, 14, 16) are assembled, and characterized in that the first lens frame includes an opening different from the at least one insertion hole, the opening exposes the joint (11ab, 16ca) to the outside of the first lens frame from the subject side in a state where the first to third lens frames (11, 12, 14, 16) are assembled.
An apparatus for circulating molten metal in a vessel containing the molten metal, the apparatus comprising: a well (12, 48, 112, 212) located entirely within the vessel; a magnet positioned within the well (12, 48, 112, 212); a detector for detecting breach of the well; and a lift adapted to be actuatable in response to a signal from the detector to lift the magnet out of the well (12, 48, 112, 212). a well (12, 48, 112, 212) located entirely within the vessel; a magnet positioned within the well (12, 48, 112, 212); a detector for detecting breach of the well; and a lift adapted to be actuatable in response to a signal from the detector to lift the magnet out of the well (12, 48, 112, 212).