mhurhangee/patent-ind-claim-en huggingface dataset:
A non-transitory computer-readable storage medium having computer-executable instructions for causing a computer system to perform a method comprising: in response to an instruction to dismount a storage volume in a first node in a clustered network , making an attempt to acquire an exclusive lock on said storage volume; if said attempt is unsuccessful, then: accessing an internal handle table for each process that is accessing said storage volume, wherein said internal handle table comprises a plurality of entries comprising handles_that reference objects; identifying an entry of said entries that references said storage volume, wherein said entry corresponds to an object in said storage volume closing the handle that references said object, wherein if the respective process is accessing files on other storage volumes than the one that is to be dismounted, then only the handles for those objects on the storage volume to be dismounted are closed, leaving the handles to other objects on the other storage volumes open; acquiring said exclusive lock on said storage volume after said closing; and dismounting said storage volume after acquiring said exclusive lock. in response to an instruction to dismount a storage volume in a first node in a clustered network , making an attempt to acquire an exclusive lock on said storage volume; if said attempt is unsuccessful, then: accessing an internal handle table for each process that is accessing said storage volume, wherein said internal handle table comprises a plurality of entries comprising handles_that reference objects; identifying an entry of said entries that references said storage volume, accessing an internal handle table for each process that is accessing said storage volume, wherein said internal handle table comprises a plurality of entries comprising handles_that reference objects; identifying an entry of said entries that references said storage volume, wherein said entry corresponds to an object in said storage volume closing the handle that references said object, wherein if the respective process is accessing files on other storage volumes than the one that is to be dismounted, then only the handles for those objects on the storage volume to be dismounted are closed, leaving the handles to other objects on the other storage volumes open; acquiring said exclusive lock on said storage volume after said closing; and dismounting said storage volume after acquiring said exclusive lock.
A compound selected from the group consisting of eriodictyol, menthol, sucralose, mannitol, saccharin, and any combinations thereof for use in reducing a pancreatic fat content, preventing or treating fatty pancreas, or ameliorating a pancreas disease caused by fatty pancreas.
An acoustic musical instrument comprising an acoustic body having a hollow or semi-hollow interior , a front and rear surface and a sound board representing either the anatomical front surface or the anatomical rear surface of the hollow body, or, with the front surface and the rear surface both functioning as a sound board for the musical instrument, and having at least one sound port extending into the interior of the musical instrument through which sound can exit with the sound port comprising a hollow member adapted to be inserted through a hole formed in the musical instrument and having a central opening of predetermined geometry and a length extending a fixed distance from the hole through which the sound port is inserted, characterized in that the length of the hollow member is such that the sound port is tuned to a frequency range proportional to the resonant frequency of the acoustic musical instrument.
A composition for a heat cycle system, which comprises a working fluid for heat cycle containing trifluoroethylene, and a radical scavenger, wherein the radical scavenger is an agent for generating a halogen atom other than fluorine or a perfluoroalkyl radical generator.
Dishwashing machine comprising a washing unit , a rinsing unit and a heat pump circuit for heating water to be used in said washing unit and/or in said rinsing unit , wherein a washing chamber and a rinsing chamber are defined in said washing unit and in said rinsing unit respectively, wherein it further comprises a suction device mixing an air flow (A) drawn from an environment in which said dishwashing machine is installed and a vapour flow (V) exiting from said rinsing unit and/or from said washing unit , said suction device being fluidly connected to a heat pump heat exchange unit of said heat pump circuit for heating a working fluid flowing in said heat pump circuit by a mixed flow (M) of said air flow (A) and said vapour flow (V), wherein said washing unit comprises an inlet opening through which dishware enters said washing unit , and said rinsing unit comprises an outlet opening through which dishware exits from said rinsing unit , characterized in that said suction device comprises a suction opening for collecting said vapour flow (V) that is positioned upstream said inlet opening and/or downstream said outlet opening .
A method for transmitting data in an unlicensed frequency band, the method comprising: determining , by a network device, an end position of data to be transmitted, in a radio frame over the unlicensed frequency band; determining , by the network device, a position indication information according to the end position, wherein the position indication information instructs a user equipment to determine the end position of the data to be transmitted, in the radio frame over the unlicensed frequency band according to the position indication information; and sending , by the network device, the position indication information to the user equipment via signaling; wherein the signaling is located in a prescribed Orthogonal Frequency Division Multiplex, OFDM symbol in any one sub-frame included in the radio frame, between a sub-frame where a successful contention based access is achieved, and a sub-frame where a last complete available OFDM symbol, where the data to be transmitted are transmitted, is located; or the signaling is located in a first N-th OFDM symbol or a last complete available OFDM symbol in a last sub-frame included in the radio frame, wherein N is a positive integer. determining , by a network device, an end position of data to be transmitted, in a radio frame over the unlicensed frequency band; determining , by the network device, a position indication information according to the end position, wherein the position indication information instructs a user equipment to determine the end position of the data to be transmitted, in the radio frame over the unlicensed frequency band according to the position indication information; and sending , by the network device, the position indication information to the user equipment via signaling; wherein the signaling is located in a prescribed Orthogonal Frequency Division Multiplex, OFDM symbol in any one sub-frame included in the radio frame, between a sub-frame where a successful contention based access is achieved, and a sub-frame where a last complete available OFDM symbol, where the data to be transmitted are transmitted, is located; or the signaling is located in a first N-th OFDM symbol or a last complete available OFDM symbol in a last sub-frame included in the radio frame, wherein N is a positive integer.
Method for additively manufacturing at least one three-dimensional object by means of successive layerwise selective irradiation and consolidation of layers of build material which can be consolidated by means of at least one energy beam , comprising the steps of: - providing a plurality of process parameter sets (PPS1 - PPSn) each comprising a plurality of process parameters (PP1 - PPn) allowing for a selective consolidation of a layer of build material , whereby each process parameter set (PPS1 - PPSn) results in specific properties of the microstructure of an area of the respective layer of build material which was selectively irradiated and consolidated on basis of the respective process parameter set (PPS1 - PPSn); - using at least two different process parameter sets (PPS1 - PPSn) of the plurality of process parameter sets (PPS1 - PPSn) for additively manufacturing at least one three-dimensional object by means of the successive layerwise selective irradiation and consolidation of layers of build material which can be consolidated by means of at least one energy beam ; wherein an interlocking microstructure in which adjacently disposed grains are disposed in an interlocking arrangement is generated by using the at least two different process parameter sets (PPS1 - PPSn). - providing a plurality of process parameter sets (PPS1 - PPSn) each comprising a plurality of process parameters (PP1 - PPn) allowing for a selective consolidation of a layer of build material , whereby each process parameter set (PPS1 - PPSn) results in specific properties of the microstructure of an area of the respective layer of build material which was selectively irradiated and consolidated on basis of the respective process parameter set (PPS1 - PPSn); - using at least two different process parameter sets (PPS1 - PPSn) of the plurality of process parameter sets (PPS1 - PPSn) for additively manufacturing at least one three-dimensional object by means of the successive layerwise selective irradiation and consolidation of layers of build material which can be consolidated by means of at least one energy beam ; wherein an interlocking microstructure in which adjacently disposed grains are disposed in an interlocking arrangement is generated by using the at least two different process parameter sets (PPS1 - PPSn).
Method for controlling a brake device having a hydrodynamic retarder , comprising at least in each case one rotor bladed wheel and stator bladed wheel which are arranged in a common housing and which together form a toroidal working chamber which can be filled with a working medium for braking operation of the retarder and can be emptied again for non-braking operation of the retarder, and having an external cooling circuit line which leads from the working chamber to a cooler and back again from there, characterized in that , at least during braking operation, a temperature (T Kreisiauf ) is used for the control of the braking torque, said temperature originating from a temperature sensor which is positioned such that the temperature in the working chamber is measured by means of said temperature sensor, wherein an initial temperature value, which deviates from the temperature (T Kreisiauf ) measured by the temperature sensor , is used as control temperature for the control of the braking torque of the retarder for a time period (t totzeit ) upon the activation of braking operation.
A data transfer method operational on at least one of two devices in a terminal, the two devices communicatively coupled through a communication link , said communication link configurable for compatibility with a plurality of physical interface standards, the method comprising: determining a physical interface standard for use for communicating between the two devices in the terminal; selecting an encoder from at least two encoders that encode data in different manners to generate encoded data consistent with the physical interface standard to be used for communicating between the two devices in the terminal; configuring a plurality of drivers to receive the encoded data from the selected encoder and to drive a plurality of connectors communicatively coupling the two devices in accordance with the physical interface standard to be used for communicating between the two devices in the terminal; and controlling a plurality of switches to couple outputs of the selected encoder to the plurality of drivers, wherein the plurality of switches is configurable for a plurality of modes of operation and wherein in a first mode of operation, the plurality of switches is configured such that the plurality of drivers operates as differential line drivers and in a second mode of operation, the plurality of switches is configured such that the plurality of drivers operates as M-wire N-phase line drivers. determining a physical interface standard for use for communicating between the two devices in the terminal; selecting an encoder from at least two encoders that encode data in different manners to generate encoded data consistent with the physical interface standard to be used for communicating between the two devices in the terminal; configuring a plurality of drivers to receive the encoded data from the selected encoder and to drive a plurality of connectors communicatively coupling the two devices in accordance with the physical interface standard to be used for communicating between the two devices in the terminal; and controlling a plurality of switches to couple outputs of the selected encoder to the plurality of drivers, wherein the plurality of switches is configurable for a plurality of modes of operation and wherein in a first mode of operation, the plurality of switches is configured such that the plurality of drivers operates as differential line drivers and in a second mode of operation, the plurality of switches is configured such that the plurality of drivers operates as M-wire N-phase line drivers.
Method for layer-wise construction of a shaped body by stereolithographic solidification of photopolymerizable material in successive layers utilizing an exposure unit for exposure within an exposure area having a layer contour that is predefined for each layer, wherein the exposure unit is configured for exposing a plurality of picture elements in a predetermined exposure field and to perform an exposure by selectively, controlled by a control unit exposing picture elements which collectively define the exposure area having the predefined layer contour for each respective layer, and wherein the exposure unit is configured to be controllable by the control unit to generate exposure light for each picture element with adjustable exposure intensity between zero and a maximal intensity, which exposure light is projected by imaging optics to an associated picture element, wherein the control unit uses, when controlling the exposure unit, homogenizing factors which have been determined in advance, wherein each picture element is associated with a homogenizing factor which has been determined in advance such that, when for the generation of exposure light exposure intensities are used which for each picture element are determined by a uniform basic intensity multiplied with the homogenizing factor that is associated with each respective picture element, the intensity that actually is effected for each picture element is the same for each picture element independent of the position in the exposure field, characterized in that before exposing an exposure area the control unit determines a brightening factor as the ratio between the maximal intensity of the exposure unit and the maximal exposure intensity present in the current exposure area, and uses for controlling the exposure unit the exposure intensities multiplied with the brightening factor for exposing the respective exposure area, wherein either the exposure time that would be required for solidification of a layer in the exposure area for an exposure without use of the brightening factor is divided by the brightening factor, and that a shortened exposure of the exposure area using the divided exposure time is performed, or an intensity of a light source of the exposure unit that would be required for solidification of a layer in a exposure area without use of the brightening factor is reduced by dividing it through the brightening factor in order perform the exposure of the exposure area with the reduced intensity of the light source.
A medical hand grinding apparatus for dental enamel abrading of tooth surfaces by introduction of the grinding apparatus between adjacent teeth of a patient, the grinding apparatus comprising at least a first area and at least a second area with a predetermined thickness for creating a gap between adjacent teeth, characterized in that the second area comprises a predetermined breaking point at which the second area breaks along an axis perpendicular to its longitudinal axis and perpendicular to its height or thickness when a critical bending moment M krit is exceeded.
Hairdressing appliance comprising a main body and a heating accessory for styling hair, said accessory being rotatably mounted with respect to the main body and having an inner chamber, the main body comprising a drive unit , arranged inside said inner chamber of the accessory , for rotating the accessory , characterised in that the accessory comprises a cold end piece which enables the user to handle the heating accessory without the risk of burns or discomfort, which constitutes one end of the hairdressing appliance, which is intended to be grasped by the user of the hairdressing appliance, and which extends at least partially around the drive unit .
An assay device for analyzing a blood fluid sample , wherein the assay device comprises: a separation membrane containing a first reagent for precipitating a first protein contained in the blood fluid sample, further wherein the separation membrane separates red blood cells from the blood fluid sample, and the first reagent comprises a polyanionic non-high density lipoprotein binding reagent; a detection membrane configured to elicit a quantifiable response in the presence of a second protein present in the blood fluid sample, wherein the quantifiable response corresponds to an amount of the second protein present in the detection membrane, wherein the separation membrane concurrently precipitates the first protein and separates the red blood cells from the blood fluid sample that reaches the detection membrane; and wherein the first reagent is present in the separation membrane at (a) a concentration ranging from about 35 milligrams/milliliter to about 250 milligrams/milliliter based on the wet weight of the first reagent present on the separation membrane, or (b) a concentration ranging from about 0.7 milligrams/square centimeter to about 10 milligrams/square centimeter based on the dry weight of the first reagent present on the separation membrane. a separation membrane containing a first reagent for precipitating a first protein contained in the blood fluid sample, further wherein the separation membrane separates red blood cells from the blood fluid sample, and the first reagent comprises a polyanionic non-high density lipoprotein binding reagent; a detection membrane configured to elicit a quantifiable response in the presence of a second protein present in the blood fluid sample, wherein the quantifiable response corresponds to an amount of the second protein present in the detection membrane, wherein the separation membrane concurrently precipitates the first protein and separates the red blood cells from the blood fluid sample that reaches the detection membrane; and wherein the first reagent is present in the separation membrane at (a) a concentration ranging from about 35 milligrams/milliliter to about 250 milligrams/milliliter based on the wet weight of the first reagent present on the separation membrane, or (b) a concentration ranging from about 0.7 milligrams/square centimeter to about 10 milligrams/square centimeter based on the dry weight of the first reagent present on the separation membrane.
A catalyst for purification of exhaust gas, configured to remove at least CO and HC in the exhaust gas, the catalyst comprising: a support comprising alumina, yttria, and titania; and a noble metal supported on the support, wherein the yttria and the titania are supported on the alumina surface, based on a total amount of alumina, yttria, and titania in the support, the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and a content ratio, that is yttrium:titanium, between the yttria and the titania in the support is within a range of 90:10 to 20:80 based on an atomic ratio of the metal elements. a support comprising alumina, yttria, and titania; and a noble metal supported on the support, wherein the yttria and the titania are supported on the alumina surface, based on a total amount of alumina, yttria, and titania in the support, the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and a content ratio, that is yttrium:titanium, between the yttria and the titania in the support is within a range of 90:10 to 20:80 based on an atomic ratio of the metal elements.
A nested ash discharge structure in a high-temperature dedusting apparatus, comprising: a nested ash hopper structure , at least comprising an inner ash hopper and an outer ash hopper which are nested in the high-temperature dedusting apparatus, wherein an inner ash flow cavity penetrating the inner ash hopper in an axial direction is disposed in the inner ash hopper, and an annular space between the inner ash hopper and the outer ash hopper forms an outer ash flow cavity; and a cooling frame structure , comprising inner cooling medium pipes and outer cooling medium pipes which are respectively disposed as a frame in the high-temperature dedusting apparatus, wherein the inner cooling medium pipes cool and support the inner ash hopper, the outer cooling medium pipes cool and support the outer ash hopper, and an overall flow direction of cooling medium in the inner cooling medium pipes and the outer cooling medium pipes is from bottom to top. a nested ash hopper structure , at least comprising an inner ash hopper and an outer ash hopper which are nested in the high-temperature dedusting apparatus, wherein an inner ash flow cavity penetrating the inner ash hopper in an axial direction is disposed in the inner ash hopper, and an annular space between the inner ash hopper and the outer ash hopper forms an outer ash flow cavity; and a cooling frame structure , comprising inner cooling medium pipes and outer cooling medium pipes which are respectively disposed as a frame in the high-temperature dedusting apparatus, wherein the inner cooling medium pipes cool and support the inner ash hopper, the outer cooling medium pipes cool and support the outer ash hopper, and an overall flow direction of cooling medium in the inner cooling medium pipes and the outer cooling medium pipes is from bottom to top.