mhurhangee/patent-ind-claim-en huggingface dataset:
A machine readable medium on which instructions are stored, comprising instructions that when executed cause a machine to at least: receive, from a server , a clone image including an instance of an operating system and an application hosted by the server , and a copy of scan results ; identify initiation of the application using the clone image ; in response to identifying initiation of the application , determine that the copy of scan results includes scan results of the application; and in response to determining the copy of scan results includes scan results of the application, execute the application without any further scan of the application , the clone image including a read-only layer and a cache snapshot layer, the read-only layer including the instance of the operating system and the application , and the cache snapshot layer including the copy of the scan results . receive, from a server , a clone image including an instance of an operating system and an application hosted by the server , and a copy of scan results ; identify initiation of the application using the clone image ; in response to identifying initiation of the application , determine that the copy of scan results includes scan results of the application; and in response to determining the copy of scan results includes scan results of the application, execute the application without any further scan of the application , the clone image including a read-only layer and a cache snapshot layer, the read-only layer including the instance of the operating system and the application , and the cache snapshot layer including the copy of the scan results .
A method for processing a cloud service in a cloud system, wherein the cloud system comprises a hosted cloud that directly interacts with a user, an allied cloud, and an alliance management apparatus, the hosted cloud comprises a first region, the allied cloud comprises a second region, wherein the hosted cloud directly provides a first cloud service for the user based on a hardware resource and a software resource that are of the first region, and the allied cloud indirectly provides a second cloud service for the user based on a hardware resource and a software resource that are of the second region; and the method comprises: receiving (S401), by the alliance management apparatus, an application programming interface, API, request sent by a client of the user, wherein the API request is used to request to process a cloud service in a virtual region provided by the hosted cloud, wherein the virtual region is a mapping of the second region in the hosted cloud, and wherein the virtual region is in a one-to-one correspondence with the second region; replacing (S409), by the alliance management apparatus, an API endpoint domain name of the virtual region that is carried in the API request with an API endpoint domain name of the second region, to obtain an API request obtained after the replacement; and forwarding (S410), by the alliance management apparatus, the API request obtained after the replacement to an API endpoint of the second region, wherein the API request obtained after the replacement is used to request to process the cloud service in the second region. receiving (S401), by the alliance management apparatus, an application programming interface, API, request sent by a client of the user, wherein the API request is used to request to process a cloud service in a virtual region provided by the hosted cloud, wherein the virtual region is a mapping of the second region in the hosted cloud, and wherein the virtual region is in a one-to-one correspondence with the second region; replacing (S409), by the alliance management apparatus, an API endpoint domain name of the virtual region that is carried in the API request with an API endpoint domain name of the second region, to obtain an API request obtained after the replacement; and forwarding (S410), by the alliance management apparatus, the API request obtained after the replacement to an API endpoint of the second region, wherein the API request obtained after the replacement is used to request to process the cloud service in the second region.
A method for displaying a currently permissible maximum speed detected for a currently traveled route section by means of a display device for a motor vehicle , - wherein a symbol is displayed on the display device , which comprises a numerical value , which constitutes the currently permissible maximum speed , - wherein a change of the symbol different from a change of the numerical value takes place depending on a change at least of one detected environmental parameter. - wherein the at least one detected environmental parameter constitutes a current geographical position , - wherein a geographical map representation is displayed by means of the display device , - wherein the symbol is displayed in the geographical map representation , and - wherein a position of the displayed symbol is changed with respect to the map representation depending on the change of the detected current geographical position , characterized in that in order to represent the current position of the motor vehicle , the symbol is represented at the current geographical position in the map representation and no further symbol representing the current position is displayed. - wherein a symbol is displayed on the display device , which comprises a numerical value , which constitutes the currently permissible maximum speed , - wherein a change of the symbol different from a change of the numerical value takes place depending on a change at least of one detected environmental parameter. - wherein the at least one detected environmental parameter constitutes a current geographical position , - wherein a geographical map representation is displayed by means of the display device , - wherein the symbol is displayed in the geographical map representation , and - wherein a position of the displayed symbol is changed with respect to the map representation depending on the change of the detected current geographical position ,
A centrifugal filtration device, for separating living cells, characterized by comprising a spindle , a rotary arm which is connected perpendicularly to the spindle axis to the spindle and capable of rotating as the spindle rotates to produce centrifugal force , and a microporous membrane filter which is mounted on the rotary arm ; - wherein the microporous membrane filter comprises an inlet , an outlet , a front cavity having the inlet formed thereon, a rear cavity having the outlet formed thereon, and a filter membrane arranged between the front cavity and the rear cavity ; the diameter of the filter pore of the filter membrane is 1-30 μm; - the inlet and the front cavity are arranged on a far end referring to the rotary arm , and the outlet and the rear cavity are arranged on a near end referring to the rotary arm ; - the inlet is arranged at the top or a sidewall of the front cavity , and the outlet is arranged at the bottom or a sidewall of the rear cavity . - wherein the microporous membrane filter comprises an inlet , an outlet , a front cavity having the inlet formed thereon, a rear cavity having the outlet formed thereon, and a filter membrane arranged between the front cavity and the rear cavity ; the diameter of the filter pore of the filter membrane is 1-30 μm; - the inlet and the front cavity are arranged on a far end referring to the rotary arm , and the outlet and the rear cavity are arranged on a near end referring to the rotary arm ; - the inlet is arranged at the top or a sidewall of the front cavity , and the outlet is arranged at the bottom or a sidewall of the rear cavity .
An excavator comprising: a carriage ; a structure rotatably mounted on the carriage; a boom pivotally mounted on the structure; an arm rotatably mounted on a tip end of the boom; a bucket mounted on a tip end of the arm; a camera that captures an area in a vicinity of the excavator; and a controller , characterized in that the controller is configured to perform a slope finishing support control by operating at least one of the boom , the arm , and the bucket so as to press a predetermined portion of the bucket against a target forming surface, and by moving the predetermined portion of the bucket along the target forming surface, while restricting a lowering operation of the boom so that at least one of the bucket pressing force and the bucket lowering speed do not become relatively large. a carriage ; a structure rotatably mounted on the carriage; a boom pivotally mounted on the structure; an arm rotatably mounted on a tip end of the boom; a bucket mounted on a tip end of the arm; a camera that captures an area in a vicinity of the excavator; and a controller , characterized in that the controller is configured to perform a slope finishing support control by operating at least one of the boom , the arm , and the bucket so as to press a predetermined portion of the bucket against a target forming surface, and by moving the predetermined portion of the bucket along the target forming surface, while restricting a lowering operation of the boom so that at least one of the bucket pressing force and the bucket lowering speed do not become relatively large.
A method of determining the thickness of a retina, the method comprising: illuminating the retina with a beam of light; and receiving a reflected beam of light from the retina, characterized in that the method further comprises: using an autocorrelation signal within the reflected beam of light to determine the thickness of the retina from the autocorrelation signal. illuminating the retina with a beam of light; and receiving a reflected beam of light from the retina, characterized in that the method further comprises: using an autocorrelation signal within the reflected beam of light to determine the thickness of the retina from the autocorrelation signal.
An antenna device comprising: a first conductor ; a second conductor disposed to be perpendicular to the first conductor; a sealed case comprising a first electrode and a second electrode , the maximum size of each of the first and second electrodes and a distance between the first and second electrodes being equal to or smaller than one tenth the wavelength of a signal of interest, the sealed case containing rare gas; and a power source configured to apply variable voltage to the first and second electrodes to ionize the rare gas in the sealed case into a plasma state, wherein the first electrode is connected to the second conductor , and the second electrode is connected to the first conductor , wherein the first conductor is a ground plate, and wherein the second conductor is an antenna radiation conductor. a first conductor ; a second conductor disposed to be perpendicular to the first conductor; a sealed case comprising a first electrode and a second electrode , the maximum size of each of the first and second electrodes and a distance between the first and second electrodes being equal to or smaller than one tenth the wavelength of a signal of interest, the sealed case containing rare gas; and a power source configured to apply variable voltage to the first and second electrodes to ionize the rare gas in the sealed case into a plasma state, wherein the first electrode is connected to the second conductor , and the second electrode is connected to the first conductor , wherein the first conductor is a ground plate, and wherein the second conductor is an antenna radiation conductor.
A centralized network control node , comprising: a first receiving module , configured to receive a service bearer setup request sent by a user, wherein the setup request comprises characteristic information of a service data flow to be processed; an obtaining module , configured to obtain, from a policy and charging rules function PCRF entity according to the characteristic information, a charging policy corresponding to the service data flow to be processed; a sending module , configured to send charging control information comprising the charging policy to a function node FN, by sending, to the FN , an OpenFlow standard message OFPT_FLOW_MOD carrying the charging control information; and a second receiving module , configured to: receive the charging information that is reported by the FN according to the charging control information and the service data flow to be processed, by receiving an OpenFlow standard message OFPT_FLOW_REMOVED that is reported by the FN according to the charging control information and the service data flow to be processed and that carries the charging information and interact with a charging system, such as an online charging system, OCS, or an Offline Charging System, OFCS. a first receiving module , configured to receive a service bearer setup request sent by a user, wherein the setup request comprises characteristic information of a service data flow to be processed; an obtaining module , configured to obtain, from a policy and charging rules function PCRF entity according to the characteristic information, a charging policy corresponding to the service data flow to be processed; a sending module , configured to send charging control information comprising the charging policy to a function node FN, by sending, to the FN , an OpenFlow standard message OFPT_FLOW_MOD carrying the charging control information; and a second receiving module , configured to: receive the charging information that is reported by the FN according to the charging control information and the service data flow to be processed, by receiving an OpenFlow standard message OFPT_FLOW_REMOVED that is reported by the FN according to the charging control information and the service data flow to be processed and that carries the charging information and interact with a charging system, such as an online charging system, OCS, or an Offline Charging System, OFCS.
Device for reconstructing a spinous process comprising a main portion presenting at least a first engaging hole and at least one through-seat for the insertion of ligaments to be reconstructed, one fixing bar transversely insertable into said engaging hole and which can be fixed to the cervical and/or spinal vertebrae, so that said main portion can be positioned itself in correspondence of the spinous process of the vertebrae to be rebuilt in order to replace it; characterized in that said fixing bar is realized in a single body and that said main portion comprising an enlarged area in correspondence of the engaging hole for the fixing bar and a narrow area positioned at the opposite end; the enlarged area degrades continuously in the narrow area conferring to the main portion a tapered shape.
Device (V) for guiding waste water, particularly a back flow stopper (R), comprising a housing having a top side inspection opening and an opening edge defining an outer contour , and a cover lid for being fixed in sealed fashion in the inspection opening , wherein form-fit buckling protections (S) are provided between the housing and the cover lid , wherein as the respective protection (S) at least one upright standing engagement element if provided at the opening edge and at least one passing opening is provided in the cover lid including an upright standing supporting element for the engagement element in a chimney-like prolongation of the passing opening , the passing opening and the supporting element surrounding the inserted element at all sides, and the engaging element and the supporting element being distant from the outer contour of the opening edge , characterized in that for a selective shaft installation of the device (V) the outer contour of the opening edge comprises an outwardly open surrounding sealing groove for mounting a shaft cup radial sealing , the sealing groove being situated via a supporting edge adjacently to the opening edge and the buckling protections (S).
An article, the article comprising, a substrate, wherein the substrate having two opposing major surfaces; and particles coated with a metal oxide on the substrate; particles coated with a metal on the substrate; wherein the coated particles are randomly distributed on the substrate; and wherein at least some of coated particles are discrete particles. a substrate, wherein the substrate having two opposing major surfaces; and particles coated with a metal oxide on the substrate; particles coated with a metal on the substrate; wherein the coated particles are randomly distributed on the substrate; and wherein at least some of coated particles are discrete particles.
A system for providing coordinated safety interlocking between a plurality of machines, the system comprising: a plurality of machine control units each configured to control at least one of the plurality of machines; and at least one operator control unit configured to define a dynamic cluster including a subset of the plurality of machine control units and to control safety interlocking between each machine control unit in the dynamic cluster; characterized in that the at least one operator control unit is configured to change the dynamic cluster by adding and removing machine control units from the dynamic cluster to control safety interlocking between different subsets of the machine control units at different times, and wherein the at least one operator control unit is configured to define a first dynamic cluster by selecting a first subset of machine control units and a second dynamic cluster by selecting a second subset of machine control units, each subset including multiple machine control units, the first dynamic cluster different than the second dynamic cluster. a plurality of machine control units each configured to control at least one of the plurality of machines; and at least one operator control unit configured to define a dynamic cluster including a subset of the plurality of machine control units and to control safety interlocking between each machine control unit in the dynamic cluster; characterized in that the at least one operator control unit is configured to change the dynamic cluster by adding and removing machine control units from the dynamic cluster to control safety interlocking between different subsets of the machine control units at different times, and wherein the at least one operator control unit is configured to define a first dynamic cluster by selecting a first subset of machine control units and a second dynamic cluster by selecting a second subset of machine control units, each subset including multiple machine control units, the first dynamic cluster different than the second dynamic cluster.
A support element for mounting a bearing configured to support a rotatable shaft ; said support element comprising a distortable portion and a bearing mounting portion , said distortable portion being linked to said bearing mounting portion and being formed of a plurality of materials, each of said plurality of materials having a different coefficient of thermal expansion such that a change in temperature of said distortable portion causes said distortable portion to distort due to differential expansion of said plurality of materials; said support element being configured such that distortion of said distortable portion displaces said bearing mounting portion in an axial direction relative to an axis of said rotatable shaft that said bearing is configured to support, an amount of axial displacement being dependent on said temperature change. said support element comprising a distortable portion and a bearing mounting portion , said distortable portion being linked to said bearing mounting portion and being formed of a plurality of materials, each of said plurality of materials having a different coefficient of thermal expansion such that a change in temperature of said distortable portion causes said distortable portion to distort due to differential expansion of said plurality of materials; said support element being configured such that distortion of said distortable portion displaces said bearing mounting portion in an axial direction relative to an axis of said rotatable shaft that said bearing is configured to support, an amount of axial displacement being dependent on said temperature change.
Process for producing polyurethanes by reaction of compounds containing isocyanate-reactive hydrogen atoms with di- and/or polyisocyanates in the presence of one or more compounds selected from the group consisting of: NC-CHR 1 -CONR 12 -X (I), NC-CHR 4 -CO 2 H (III), [NC-CHR 5 -CO 2 ] m Y m+ (IV), wherein - X represents NR 6 R 7 , - R 1 , R 4 , R 5 , R 6 , R 7 and R 12 each independently of one another represent H, an optionally substituted C 1 -C 8 alkyl group or an optionally substituted aryl group, - Y represents a monovalent or divalent cation and - m represents 1 or 2. - X represents NR 6 R 7 , - R 1 , R 4 , R 5 , R 6 , R 7 and R 12 each independently of one another represent H, an optionally substituted C 1 -C 8 alkyl group or an optionally substituted aryl group, - Y represents a monovalent or divalent cation and - m represents 1 or 2.
Cassette filter for cleaning a fluid, having a frame and a plurality of filter elements with a filter medium provided with a fold formation , wherein the filter elements are received in the frame such that in each case at least two adjacent filter elements are arranged at an acute angle (φ) in relation to one another and therefore assume a V-shaped arrangement, wherein the filter elements have folding edges, which are formed by fold peaks (1.1) and fold troughs (1.2) and extend perpendicularly in relation to the limbs of the acute angle φ, characterized in that a respective filter element is provided with fold formations such that the height of the filter element in all the edge regions (A, B) is smaller (h min ) than the height (h max ) in its central region (M) and the folding surfaces (1.3) obtained in the edge regions (A, B) of the filter element are smaller than those in its central region (M), and in that , in side view, the folded filter element has a configuration with a straight edge and a convex edge, and in that the convex edge is configured in the form of a barrel roof or saddle roof. in that , in side view, the folded filter element has a configuration with a straight edge and a convex edge, and in that the convex edge is configured in the form of a barrel roof or saddle roof.
A composition comprising from 0.5 g to 30 g of β-hydroxy-β-methylbutyric acid (HMB) or a salt thereof and from 10mg to 80g of adenosine triphosphate (ATP).
Method for determining the load on a wheel of a vehicle characterised by the following steps: - measurement of at least one datum, termed circumferential, pertaining to the circumference of said wheel , and - calculation of the load supported by said wheel as a function of said circumferential datum. - measurement of at least one datum, termed circumferential, pertaining to the circumference of said wheel , and - calculation of the load supported by said wheel as a function of said circumferential datum.