mhurhangee/patent-ind-claim-en huggingface dataset:
A method of calibrating or verifying the dimensional accuracy of an x-ray computed tomography machine , the method comprising: controlling the x-ray computed tomography machine to image a gauge to produce a 3D gauge reconstruction with reconstructed features of the gauge, the gauge comprising a plurality of objects formed from an object material, a first base supporting two or more of the objects, and a second base supporting another two or more of the objects, the first and second bases formed from a base material, the object material having a higher x-ray attenuation value than the base material, the first base forming a first plane, the second base forming a second plane, the first plane and second plane being substantially perpendicular to each other, each of the objects being secured on at least one of the first base and the second base, whereby the perpendicular configuration of the first base and the second base positions the objects on the orthogonal planes in multiple spatial directions, each of the objects having a center, the distance between the centers of each object being known center distance values; measuring, in the 3D gauge reconstruction, the distance between at least two objects to produce measured center distance values; comparing the measured center distance values against the known center distance values; and using the comparison to determine if there is a distance error in the x-ray computed tomography machine. controlling the x-ray computed tomography machine to image a gauge to produce a 3D gauge reconstruction with reconstructed features of the gauge, the gauge comprising a plurality of objects formed from an object material, a first base supporting two or more of the objects, and a second base supporting another two or more of the objects, the first and second bases formed from a base material, the object material having a higher x-ray attenuation value than the base material, the first base forming a first plane, the second base forming a second plane, the first plane and second plane being substantially perpendicular to each other, each of the objects being secured on at least one of the first base and the second base, whereby the perpendicular configuration of the first base and the second base positions the objects on the orthogonal planes in multiple spatial directions, each of the objects having a center, the distance between the centers of each object being known center distance values; measuring, in the 3D gauge reconstruction, the distance between at least two objects to produce measured center distance values; comparing the measured center distance values against the known center distance values; and using the comparison to determine if there is a distance error in the x-ray computed tomography machine.
A manufacture work machine (10; 370-384; 430-442; 480-484) for performing a manufacture work, comprising a plurality of work-element performing apparatuses each configured to perform one of a plurality of work elements that constitute the manufacture work, wherein the plurality of work-element performing apparatuses include: a plurality of work head devices (26, 28, etc.) including a first work head device (26, etc.) which is a carry head configured to hold a component for movement of the component, and a second work head device (28, etc.) which is a process head different in function from that of the first work head device (26, etc.); and a head moving device configured to perform movement of the first work head device and the second work head device as one of the plurality of work elements, the head moving device including a planar-type moving device configured to move the first work head device and the second work head device together as a unit along one plane, wherein the manufacture work machine is an assembling work machine configured to perform, as the manufacture work, an assembling work of assembling a plurality of components into an assembled article and which is configured to perform, as at least a part of the assembling work, a work of mounting, onto a first component as one of the plurality of components, a second component as another one of the plurality of components, wherein the first work head device is configured to perform holding of the second component using the component holder, as a work necessary for mounting the second component onto the first component, and wherein the head moving device further includes up-down-direction moving devices each being configured to independently move a corresponding one of the work head devices (26, 28, etc.) in an up-down direction.
An electrolyte solution for an electrochemical device, said electrolyte solution comprising at least one compound (I) of formula (I) wherein R 11 is C 2-6 -alkyl: and at least one compound (II) of any of the formulae (a)-(d) wherein R 12 and R 13 each independently are halogen or C 1-3 -alkyl optionally containing a halogen atom, a substituent or a hetero atom, or they together are C 1-3 -alkylene to form a ring together with the boron atom and each of which optionally contains a halogen atom, a substituent or a hetero atom; wherein Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom. (I) of formula (I) wherein R 11 is C 2-6 -alkyl: and at least one compound (II) of any of the formulae (a)-(d) wherein R 12 and R 13 each independently are halogen or C 1-3 -alkyl optionally containing a halogen atom, a substituent or a hetero atom, or they together are C 1-3 -alkylene to form a ring together with the boron atom and each of which optionally contains a halogen atom, a substituent or a hetero atom; wherein Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom. Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom.
A port configuration method being performed by a first communication device, comprising: obtaining (S310) an identifier of a second port group of a second communication device via a physical connection between a first port of the first communication device and a second port in the second port group of the second communication device; determining (S320) an internet protocol, IP, address of the first port based on the identifier of the second port group and a preconfigured first mapping relationship, wherein the first mapping relationship comprises a correspondence between the identifier of the second port group and the IP address of the first port; and configuring (S330) the IP address for the first port. determining (S320) an internet protocol, IP, address of the first port based on the identifier of the second port group and a preconfigured first mapping relationship, wherein the first mapping relationship comprises a correspondence between the identifier of the second port group and the IP address of the first port; and configuring (S330) the IP address for the first port.
Computer-implemented method for correcting a spectacle parameter, comprising: - displaying a representation (30; 40, 41) of the head in a head posture or a representation of the head with a spectacle frame in a spectacle frame alignment , and - correcting the spectacle parameter on the basis of a corrected head posture and/or on the basis of a corrected spectacle frame alignment, characterized in that the corrected head posture and/or the corrected spectacle frame alignment is determined by: - an at least partly manual correction of the head posture in the displayed representation (30; 40, 41) of the head and/or of the spectacle frame alignment in the displayed representation (30; 40, 41) of the head with the spectacle frame, and in that the spectacle parameter comprises an axis position of a spherocylindrical refraction. - displaying a representation (30; 40, 41) of the head in a head posture or a representation of the head with a spectacle frame in a spectacle frame alignment , and - correcting the spectacle parameter on the basis of a corrected head posture and/or on the basis of a corrected spectacle frame alignment, - an at least partly manual correction of the head posture in the displayed representation (30; 40, 41) of the head and/or of the spectacle frame alignment in the displayed representation (30; 40, 41) of the head with the spectacle frame, and
An error detection method comprising: a step of receiving image data corresponding to a plurality of frames; wherein the image data for a given frame includes display image data and error detection data that includes position information regarding a plurality of error detection regions, and a step of performing error detection, wherein performing the error detection comprises computing a plurality of error detection codes on the display image data based on the display image data of the plurality of error detection regions that are specified by the position information by calculating an error detection code based on the image data for each error detection region; and a step of outputting error determination information with respect to the plurality of error detection regions based on the error detection codes in the plurality of frames, the method being characterised in that the step of outputting error determination information comprises outputting error determination information for each of the plurality of error detection regions based on a result of a comparison for each region between the error detection code in a j th frame for the region and the error detection code in a (j+1) th frame for the region such that if the error detection code in the j th frame for the region and the error detection code in the (j+1) th frame for the region has changed, the error determination information for the region indicates that a communication error has occurred. a step of receiving image data corresponding to a plurality of frames; wherein the image data for a given frame includes display image data and error detection data that includes position information regarding a plurality of error detection regions, and a step of performing error detection, wherein performing the error detection comprises computing a plurality of error detection codes on the display image data based on the display image data of the plurality of error detection regions that are specified by the position information by calculating an error detection code based on the image data for each error detection region; and a step of outputting error determination information with respect to the plurality of error detection regions based on the error detection codes in the plurality of frames, the method being characterised in that the step of outputting error determination information comprises outputting error determination information for each of the plurality of error detection regions based on a result of a comparison for each region between the error detection code in a j th frame for the region and the error detection code in a (j+1) th frame for the region
A method of controlling of weft insertion in a shed on an air-jet weaving machine, during which a weft thread is during its passage through the shed acted upon by an auxiliary air flow from relay nozzles , whereby weft arrival times are monitored and according to them parameters of the action of the auxiliary air flow from the relay nozzles during the next insertion are adjusted, characterized in that the statistical mean value and the statistical deviation from this mean value is determined on the basis of the weft arrival times during a number (n) of successive weft insertions for each section of the relay nozzles along the weft insertion length, whereby the mean value is used for setting the mean value of the interval of the engagement of each section of the relay nozzles to support insertion depending on the angle of the working cycle of the machine and the value of the statistical deviation is multiplied by coverage factor ( k ) of probability ( p ) of weft arrival and this multiplied value is used for setting the start and the end of the interval of the engagement of each section of the relay nozzles to support insertion depending on the angle of the working cycle of the machine, and so the moments of the start and the end, and therefore the length of the engagement of the individual sections of the relay nozzles are adaptively and automatically adjusted on the basis of the statistics of the weft arrival times of the determined number (n) of the previous insertions, which allows adaptive optimization of compressed air consumption and energy intensity in accordance with the current actual conditions on the machine.
A compound as set forth in Formula (I): wherein R 1 is isothiocyanate; n' is selected from 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and R 2 is selected from alkyl, branched alkyl, heteroalkyl, cycloalkyl, heterocycloalkyl, aryl, or substituted carbonyl; wherein when R 2 is phenyl, R 2 is substituted with 0, 1, or 2 groups independently selected from alkyl, branched alkyl, heteroalkyl, cycloalkyl, heterocycloalkyl, halo, or aryl; wherein when R 2 is heteroalkyl or heterocycloalkyl, the heteroatom(s) are not S; wherein when n' is 2, R 2 is not unsubstituted phenyl; and including any acceptable salts or solvates thereof for use in treatment or prevention of trimethylaminuria, kidney disease, diabetes mellitus, or cardiovascular disease conditions by inhibiting the conversion of choline to trimethylamine (TMA) by a bacterium. wherein R 1 is isothiocyanate; n' is selected from 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and R 2 is selected from alkyl, branched alkyl, heteroalkyl, cycloalkyl, heterocycloalkyl, aryl, or substituted carbonyl; wherein when R 2 is phenyl, R 2 is substituted with 0, 1, or 2 groups independently selected from alkyl, branched alkyl, heteroalkyl, cycloalkyl, heterocycloalkyl, halo, or aryl; wherein when R 2 is heteroalkyl or heterocycloalkyl, the heteroatom(s) are not S; wherein when n' is 2, R 2 is not unsubstituted phenyl; and including any acceptable salts or solvates thereof for use in treatment or prevention of trimethylaminuria, kidney disease, diabetes mellitus, or cardiovascular disease conditions by inhibiting the conversion of choline to trimethylamine (TMA) by a bacterium.
A filter media comprising: a fiber matrix, a binder matrix distributed throughout the fiber matrix; conductive particles impregnated in the binder matrix; and a flame retardant distributed throughout the fiber matrix and the binder matrix. a fiber matrix, a binder matrix distributed throughout the fiber matrix; conductive particles impregnated in the binder matrix; and a flame retardant distributed throughout the fiber matrix and the binder matrix.
A liquid discharge device comprising: a conveyance belt configured to stick a medium (M) on an adhesive layer of a surface of the conveyance belt and convey the medium; an attachment part configured to adhere a pretreatment liquid (L) to the conveyance belt, a roller provided at a downstream position relative to the attachment part in a movement path of the conveyance belt, the roller being configured to press the medium to the conveyance belt in a state with the pretreatment liquid adhered to the conveyance belt; and characterized by a blade configured to adjust a coating width of the pretreatment liquid. a conveyance belt configured to stick a medium (M) on an adhesive layer of a surface of the conveyance belt and convey the medium; an attachment part configured to adhere a pretreatment liquid (L) to the conveyance belt, a roller provided at a downstream position relative to the attachment part in a movement path of the conveyance belt, the roller being configured to press the medium to the conveyance belt in a state with the pretreatment liquid adhered to the conveyance belt; and characterized by a blade configured to adjust a coating width of the pretreatment liquid.
An energy database system comprising: a second server that is operated by a business operator making a contract with a user of a utility such as gas, electricity, or water and collecting charges according to usage of the utility; a measurement device that is provided in a residence of the user and measures usage of the utility; and a first server that is operated by a business operator receiving usage measured by the measurement device and providing a service based on the usage, wherein the second server stores personal information for identifying the user, and unique association information allocated to the personal information, generates attribute information which cannot be used to identify an individual from the personal information, and transmits the attribute information to the first server , wherein the measurement device also transmits the association information when transmitting the usage, and wherein the first server manages usage of the utility for each piece of the association information, and transmits a result of analyzing a use situation of the utility corresponding to the attribute information to the second server as the service. a second server that is operated by a business operator making a contract with a user of a utility such as gas, electricity, or water and collecting charges according to usage of the utility; a measurement device that is provided in a residence of the user and measures usage of the utility; and a first server that is operated by a business operator receiving usage measured by the measurement device and providing a service based on the usage, wherein the second server stores personal information for identifying the user, and unique association information allocated to the personal information, generates attribute information which cannot be used to identify an individual from the personal information, and transmits the attribute information to the first server , wherein the measurement device also transmits the association information when transmitting the usage, and wherein the first server manages usage of the utility for each piece of the association information, and transmits a result of analyzing a use situation of the utility corresponding to the attribute information to the second server as the service.
A method of completing object input/outputs, IOs, the method comprising: receiving a first set of object IOs for a target storage device ; dispatching the first set of object IOs to a first buffer of a first zone, the first buffer being configured to function as a first log buffer; concatenating the first set of object IOs to form a first object group in the first buffer ; logging the first object group to a log device that has persistent memory and that is distinct from the target storage device ; modifying a function of the first buffer from the first log buffer to a first flush buffer; transferring the first object group to the target storage device ; and wherein the first object group currently in the log buffer is logged to the log device based on a timeout window corresponding to a maximum amount of time for storing one of the first set of object IOs in the first log buffer, a maximum number of object IOs to be held in first the log buffer, or a threshold size of the first object group . receiving a first set of object IOs for a target storage device ; dispatching the first set of object IOs to a first buffer of a first zone, the first buffer being configured to function as a first log buffer; concatenating the first set of object IOs to form a first object group in the first buffer ; logging the first object group to a log device that has persistent memory and that is distinct from the target storage device ; modifying a function of the first buffer from the first log buffer to a first flush buffer; transferring the first object group to the target storage device ; and wherein the first object group currently in the log buffer is logged to the log device based on a timeout window corresponding to a maximum amount of time for storing one of the first set of object IOs in the first log buffer, a maximum number of object IOs to be held in first the log buffer, or a threshold size of the first object group .
A method for a structure having a countersunk fastener head , the method comprising forcing an aliphatic urethane surfacer into a void around the fastener head , wherein the surfacer is manually forced into the void , which is between the fastener head and a cut edge of the structure , wherein the surfacer is manually forced into the void using a sponge, roller, brush or other tool. wherein the surfacer is manually forced into the void , which is between the fastener head and a cut edge of the structure , wherein the surfacer is manually forced into the void using a sponge, roller, brush or other tool.
A backrest for a scuba diver comprising a shaped plate for supporting at least one air cylinder, at least a first strap comprising an upper right portion (3A1) configured to fit around the scuba diver's right shoulder, an upper left portion (3A2) configured to fit around the scuba diver's left shoulder and a lower portion configured to fit around the scuba diver's abdomen, said shaped plate having a first right slide-through element and a first left slide-through element , adapted to connect said upper right portion (3A1) and said upper left portion (3A2), respectively, to said lower portion of said first strap , at least one weight pocket , said at least one weight pocket being constrained to said lower portion of said first strap , characterised in that there is provided an anti-torsion means connecting said at least one weight pocket to said shaped plate and configured to oppose the torsion of said first strap in proximity to at least one of said first slide-through elements , said anti-torsion means comprising at least one fastening block for fastening said weight pocket to said shaped plate .
Method of applying an outer insulation layer on the housing of a battery cell , having the following features: a. the coating is effected with a liquid, electrically insulating coating material , and b. the coating is effected using a coating applicator by applying discretely generated individual droplets of the coating material that form coating dots on an outer face of the preferably prismatic housing , and c. the coating dots are sequentially applied by means of the coating applicator in a mutually adjoining or overlapping manner, such that they collectively form coating lines . a. the coating is effected with a liquid, electrically insulating coating material , and b. the coating is effected using a coating applicator by applying discretely generated individual droplets of the coating material that form coating dots on an outer face of the preferably prismatic housing , and c. the coating dots are sequentially applied by means of the coating applicator in a mutually adjoining or overlapping manner, such that they collectively form coating lines .
Method for transferring data from a device in an automation plant to a data management means , in which using modelling data present in the device , a model is determined that describes the modelling data , using the model , the data from a volume of data provided for a transfer, which is actually to be transferred to the data management means , is selected and the device transfers the selected data to the data management means , wherein the device includes the switching unit , wherein the switching unit is a gateway, and wherein the method steps of the claim are carried out by the switching unit of the device , and wherein the data management means is a cloud and/or an Internet of Things service, wherein a number of automation devices are connected to the device, and wherein the data transferred from the automation devices serves to control a process running in the plant by means of a control unit, wherein the device receives the volume of data provided for transfer, and wherein the volume of data contains all data transferred from a number of automation devices to the device.