mhurhangee/ep-ind-claims huggingface dataset:
A method for evaluating IO performance of cache servers, the method being characterized by comprising: collecting basic data of all to-be-evaluated cache servers that the cache servers rely on a disk to cache the data resources, wherein the basic data includes at least service data, disk configuration, load data, and performance data; filtering the basic data of all the to-be-evaluated cache servers, and classifying cache servers whose basic data have the same data characteristics into one category, wherein the data characteristic includes service traffic range, evaluation time range, service type and disk configuration; statistically analyzing basic data of cache servers of each category, to obtain evaluation indexes for the cache servers of each category by calculate corresponding means, peak values, and distributions of the load data and the performance data, wherein the evaluation indexes include at least a load evaluation index and a performance evaluation index, and the performance evaluation index includes at least a disk capacity evaluation index and a disk load algorithm evaluation index; and determining, according to the evaluation indexes for the cache servers of each category, disk IO configuration requirements for the cache servers of each category, wherein the disk IO configuration requirements include at least a disk capacity configuration requirement and a disk load algorithm configuration requirement. collecting basic data of all to-be-evaluated cache servers that the cache servers rely on a disk to cache the data resources, wherein the basic data includes at least service data, disk configuration, load data, and performance data; filtering the basic data of all the to-be-evaluated cache servers, and classifying cache servers whose basic data have the same data characteristics into one category, wherein the data characteristic includes service traffic range, evaluation time range, service type and disk configuration; statistically analyzing basic data of cache servers of each category, to obtain evaluation indexes for the cache servers of each category by calculate corresponding means, peak values, and distributions of the load data and the performance data, wherein the evaluation indexes include at least a load evaluation index and a performance evaluation index, and the performance evaluation index includes at least a disk capacity evaluation index and a disk load algorithm evaluation index; and determining, according to the evaluation indexes for the cache servers of each category, disk IO configuration requirements for the cache servers of each category, wherein the disk IO configuration requirements include at least a disk capacity configuration requirement and a disk load algorithm configuration requirement.
An imaging system for enabling creation of spherical images, the imaging system comprising: a support frame; four image sensors carried by the support frame; each image sensor comprising a lens system having an optical axis and a focal plane array aligned with the optical axis of the lens system; each image sensor having a field of view that is at least coterminous with the field of view of each adjacent image sensor; the image sensors arranged according to one notional regular tetrahedron so that: the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron. a support frame; four image sensors carried by the support frame; each image sensor comprising a lens system having an optical axis and a focal plane array aligned with the optical axis of the lens system; each image sensor having a field of view that is at least coterminous with the field of view of each adjacent image sensor; the image sensors arranged according to one notional regular tetrahedron so that: the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron. the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron.
A secure communications method implemented in cooperation with a network traffic management system comprising one or more network traffic management modules, networking modules, or server modules, the method comprising: receiving an initial request to perform a first cryptographic Operation using a key stored in security hardware circuitry, the initial request identifying the key using a persistent attribute of the key; in response to servicing the initial request, using the persistent attribute of the key to query the security hardware circuitry by a thread of execution to receive a volatile handle for the key from the security hardware circuitry, wherein the volatile handle for the key changes during a lifetime of the key; storing the volatile handle for the key in association with the thread of execution external to the security hardware circuitry to enable subsequent requests by the thread of execution to perform cryptographic operations an the security hardware circuitry without querying the security hardware circuitry for the volatile handle for the key; receiving a subsequent request to perform a second cryptographic Operation using the key stored in the security hardware circuitry, the subsequent request identifying the key using the persistent attribute of the key; and servicing the subsequent request by using the thread of execution and the security hardware circuitry and identifying the key using the stored volatile handle for the key associated with the thread of execution without querying the security hardware circuitry for the volatile handle for the key. receiving an initial request to perform a first cryptographic Operation using a key stored in security hardware circuitry, the initial request identifying the key using a persistent attribute of the key; in response to servicing the initial request, using the persistent attribute of the key to query the security hardware circuitry by a thread of execution to receive a volatile handle for the key from the security hardware circuitry, wherein the volatile handle for the key changes during a lifetime of the key; storing the volatile handle for the key in association with the thread of execution external to the security hardware circuitry to enable subsequent requests by the thread of execution to perform cryptographic operations an the security hardware circuitry without querying the security hardware circuitry for the volatile handle for the key; receiving a subsequent request to perform a second cryptographic Operation using the key stored in the security hardware circuitry, the subsequent request identifying the key using the persistent attribute of the key; and servicing the subsequent request by using the thread of execution and the security hardware circuitry and identifying the key using the stored volatile handle for the key associated with the thread of execution without querying the security hardware circuitry for the volatile handle for the key.
A wound dressing garment comprising: a wearable garment including a portion having a hole configured to receive a wound dressing therein; and the wound dressing, the wound dressing including a border connecting the wound dressing to the wearable garment, the border extending around a perimeter of the hole to locate the wound dressing therein. a wearable garment including a portion having a hole configured to receive a wound dressing therein; and the wound dressing, the wound dressing including a border connecting the wound dressing to the wearable garment, the border extending around a perimeter of the hole to locate the wound dressing therein.
A constrained computing device for controlling execution of monitoring device operations within a resource-constrained computing environment, comprising: a memory; a processor coupled to the memory; and a journaling component configured to be executed by the processor in kernel mode and configured to: receive information descriptive of a first device control instruction for a device control included in a managed device; allocate, in the memory, a variable record structured according to a variable definition associated with the first device control instruction for the device control; store the information within the variable record; receive updated information descriptive of a second device control instruction for the device control, wherein the updated information is descriptive of a control operation; allocate, in the memory, an update record structured according to an update variable definition; store the updated information within the update record; and a device management component configured to: find the update record; and issue an instruction to the device control to perform the control operation. a memory; a processor coupled to the memory; and a journaling component configured to be executed by the processor in kernel mode and configured to: receive information descriptive of a first device control instruction for a device control included in a managed device; allocate, in the memory, a variable record structured according to a variable definition associated with the first device control instruction for the device control; store the information within the variable record; receive updated information descriptive of a second device control instruction for the device control, wherein the updated information is descriptive of a control operation; allocate, in the memory, an update record structured according to an update variable definition; store the updated information within the update record; and receive information descriptive of a first device control instruction for a device control included in a managed device; allocate, in the memory, a variable record structured according to a variable definition associated with the first device control instruction for the device control; store the information within the variable record; receive updated information descriptive of a second device control instruction for the device control, wherein the updated information is descriptive of a control operation; allocate, in the memory, an update record structured according to an update variable definition; store the updated information within the update record; and a device management component configured to: find the update record; and issue an instruction to the device control to perform the control operation. find the update record; and issue an instruction to the device control to perform the control operation.
Compounds of general formula below: in which: - R1 represents a lower alkyl or a higher alkyl; - X represents a hydrogen or one of the following sequences: If X represents (a), R2 represents a lower alkyl, a higher alkyl, a cycloalkyl, a cycloalkylalkyl, a lower alkoxy, a higher alkoxy, a cycloalkyloxy, a cycloalkylalkoxy, an aryl or an aryloxy; If X represents (b), R3 represents a hydrogen or a lower alkyl; - Y represents a hydrogen or the following sequence: - Z represents a hydrogen or the following sequence: - R1 represents a lower alkyl or a higher alkyl; - X represents a hydrogen or one of the following sequences: - Y represents a hydrogen or the following sequence: - Z represents a hydrogen or the following sequence:
A pharmaceutical composition comprising a physical mixture of sacubitril sodium and valsartan disodium, wherein the X-ray powder diffraction pattern of valsartan disodium comprises characteristic peaks at the following 2 theta (± 0.2) angles: 4.70°, 9.29°, 22.34°, and the X-ray powder diffraction pattern of sacubitril sodium comprises characteristic peaks at the following 2 theta (± 0.2) angles: 3.14°, 6.25°, 11.97°, 12.73°, 13.78°, 16.50°, 18.35°, 19.93°, 21.56°, 23.75°, 26.20° measured using a Cu Kα radiation.
Separation unit for separating carbon dioxide from ambient air, wherein the separation unit comprises at least one contiguous and sealing circumferential wall element, circumferentially enclosing at least one cavity, said at least one contiguous and sealing circumferential wall element defining an upstream opening and an opposed downstream opening of said at least one cavity, said cavity containing at least one gas adsorption structure for adsorbing carbon dioxide, preferably under ambient pressure and/or temperature conditions, wherein the separation unit further comprises a pair of opposing sliding doors for sealing the upstream opening and the downstream opening, respectively, of at least one cavity in a closed state, and wherein each of the pair of opposing sliding doors, to open the closed cavity, is shifted in a direction essentially parallel to the plane of the respective sliding door to uncover the upstream and downstream opening, respectively and to allow for flow through of ambient air through the gas adsorption structure. said at least one contiguous and sealing circumferential wall element defining an upstream opening and an opposed downstream opening of said at least one cavity, said cavity containing at least one gas adsorption structure for adsorbing carbon dioxide, preferably under ambient pressure and/or temperature conditions,
A process for producing aldehyde compounds comprising: reacting a compound represented by the following formula or the following formula with a hydrogen and a carbon monoxide in a presence of a rhodium compound and a phosphorous compound so as to satisfy the following conditions and; wherein the condition is that a content of a metal included in the rhodium compound is 0.15 ppmmol to 100 ppmmol with respect to 1 mol of the compound represented by the following formula or, and wherein the condition is that a molar ratio represented by the phosphorous compound (mol)/ the metal (mol) is 150 or more, wherein, in the formula, X represents a hydrogen atom, a cyano group, an aldehyde group or -CH=NR group, and R represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms or an aryl group; in the formula and the formula, n represents 1 or 2, and wherein the phosphorous compound is selected from triphenyl phosphite, triphenyl phosphine, trimethyl phosphine, triethyl phosphine, tripropyl phosphine, tri(methylbenzene) phosphine, tri(ethylbenzene) phosphine, 1,2-bis(diphenylphosphino)ethylene, 1,3-bis(diphenylphosphino)propane, 2,2-bis(diphenylphosphino)-1,1-binaphthyl, trimethoxy phosphite, triethoxy phosphite, tripropoxy phosphite, triisopropoxy phosphite, trimethyl phenyl phosphite and tris(2,4-ditert-butylphenyl)phosphite. reacting a compound represented by the following formula or the following formula with a hydrogen and a carbon monoxide in a presence of a rhodium compound and a phosphorous compound so as to satisfy the following conditions and; wherein the condition is that a content of a metal included in the rhodium compound is 0.15 ppmmol to 100 ppmmol with respect to 1 mol of the compound represented by the following formula or, and wherein the condition is that a molar ratio represented by the phosphorous compound (mol)/ the metal (mol) is 150 or more, wherein, in the formula, X represents a hydrogen atom, a cyano group, an aldehyde group or -CH=NR group, and R represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms or an aryl group; in the formula and the formula, n represents 1 or 2, and wherein the phosphorous compound is selected from triphenyl phosphite, triphenyl phosphine, trimethyl phosphine, triethyl phosphine, tripropyl phosphine, tri(methylbenzene) phosphine, tri(ethylbenzene) phosphine, 1,2-bis(diphenylphosphino)ethylene, 1,3-bis(diphenylphosphino)propane, 2,2-bis(diphenylphosphino)-1,1-binaphthyl, trimethoxy phosphite, triethoxy phosphite, tripropoxy phosphite, triisopropoxy phosphite, trimethyl phenyl phosphite and tris(2,4-ditert-butylphenyl)phosphite.
Shock absorber for an at least partially muscle-powered bicycle having a damper device having a first and at least one second damper chamber (3, 4) assigned thereto which are hydraulically coupled with one another through at least one damping valve, wherein the damping valve is provided with at least one flow duct with a field-sensitive, rheological medium, wherein the at least one damping valve has at least one field generating device assigned to it which serves to generate and control a field intensity in the flow duct of the damping valve, wherein the damping valve is disposed at a damping piston unit comprising the damping piston and a piston rod, characterised in that the flow duct in the damping valve comprises at least one collection chamber which is hydraulically connected with the first damper chamber through a plurality of flow apertures (14, 15), wherein at least one flow aperture is configured as a through hole and at least one flow aperture, as a closable valve opening provided with a one-way valve, and that the collection chamber is hydraulically connected hydraulically with the second damper chamber via at least a plurality of fan-type damping ducts (20, 21) each separated from one another by a fan wall.
A computer implemented method for testing a wearable device, characterized in that the wearable device comprises a lens component and a display screen provided on one side of the lens component, and the method comprising: performing at least two angle acquisition processes, the angle acquisition process comprising: relatively rotating a center point of an imaging area of an image acquisition component from a position aligned with an initial specified point of a target virtual image to a position aligned with a target specified point of the target virtual image, wherein the target virtual image is a virtual image formed, via the lens component, by an actual test image displayed by the display screen in the wearable device, and a line connecting the center point of the imaging area and the initial specified point is perpendicular to the display screen when the center point of the imaging area is aligned with the initial specified point, and acquiring an angle variation value of the center point of the imaging area of the image acquisition component in the rotation from the position aligned with the initial specified point of the target virtual image to the position aligned with the target specified point of the target virtual image; and determining an optical imaging parameter value of the target virtual image on the basis of the angle variation values acquired in the at least two angle acquisition processes. relatively rotating a center point of an imaging area of an image acquisition component from a position aligned with an initial specified point of a target virtual image to a position aligned with a target specified point of the target virtual image, wherein the target virtual image is a virtual image formed, via the lens component, by an actual test image displayed by the display screen in the wearable device, and a line connecting the center point of the imaging area and the initial specified point is perpendicular to the display screen when the center point of the imaging area is aligned with the initial specified point, and acquiring an angle variation value of the center point of the imaging area of the image acquisition component in the rotation from the position aligned with the initial specified point of the target virtual image to the position aligned with the target specified point of the target virtual image; and determining an optical imaging parameter value of the target virtual image on the basis of the angle variation values acquired in the at least two angle acquisition processes.
A storage chip for use in an imaging cartridge, characterized in that the imaging cartridge is detachably installed in an imaging device, the storage chip comprises a communication unit, a control unit and a storage unit, wherein, the communication unit is configured to receive information sent by the imaging device and send information to the imaging device; the storage unit is configured to store at least mark information and information of multiple different serial numbers; the control unit is configured to determine a state of the mark information stored by the storage unit when a preset condition is detected, in order to determine whether it is needed to replace a currently-selected serial number; the control unit is further configured to judge whether it is needed to modify the state of the mark information after sending the selected serial number information to the imaging device.
A dispensing apparatus for dispensing fluids to a patient comprising: (a) an outer housing; (b) an expandable housing disposed within said outer housing, said expandable housing having a fluid reservoir provided with an inlet for permitting fluid flow into said fluid reservoir and an outlet for permitting fluid flow from said fluid reservoir; (c) stored energy means disposed within said outer housing for exerting a force upon said first expandable housing to cause the fluid contained within said fluid reservoir to controllably flow through said outlet, said stored energy means comprising a constant force extension spring carried within said outer housing, said constant force extension spring being retractable to cause fluid flow from said fluid reservoir; (d) fill means carried by said outer housing for filling said reservoir with the fluid to be dispensed; and (e) dispensing means carried by said outer housing for dispensing fluid to the patient, wherein said expandable housing comprises a bellows structure having an accordion-like side wall and, said bellows structure being movable from a substantially collapsed configuration to a substantially expanded configuration by fluid flowing into said fluid reservoir, characterized in that said fill means comprise first and second fill vials receivable within said outer housing, said second fill vial contains a diluent and a lyophilized drug. (a) an outer housing; (b) an expandable housing disposed within said outer housing, said expandable housing having a fluid reservoir provided with an inlet for permitting fluid flow into said fluid reservoir and an outlet for permitting fluid flow from said fluid reservoir; (c) stored energy means disposed within said outer housing for exerting a force upon said first expandable housing to cause the fluid contained within said fluid reservoir to controllably flow through said outlet, said stored energy means comprising a constant force extension spring carried within said outer housing, said constant force extension spring being retractable to cause fluid flow from said fluid reservoir; (d) fill means carried by said outer housing for filling said reservoir with the fluid to be dispensed; and (e) dispensing means carried by said outer housing for dispensing fluid to the patient, wherein said expandable housing comprises a bellows structure having an accordion-like side wall and, said bellows structure being movable from a substantially collapsed configuration to a substantially expanded configuration by fluid flowing into said fluid reservoir, characterized in that said fill means comprise first and second fill vials receivable within said outer housing, said second fill vial contains a diluent and a lyophilized drug.