mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a fire-proof material for high pressure storage tank comprising a matrix of thermosetting elastomeric resin wherein endothermic fillers are incorporated, characterised in that it comprises the following steps of: a) preparing a mixture comprising at least one precursor of the thermosetting elastomeric resin and at least one endothermic filler, said step (a) being performed at room temperature ; b) optionally outgassing the mixture obtained in step (a); c) adding, to the mixture obtained in step (a) or to the outgassed mixture obtained in step (b), an agent enabling said thermosetting elastomeric resin to be obtained from said precursor, said step (c) being performed at room temperature ; d) optionally outgassing the mixture obtained in step (c) ; e) cold shaping the mixture obtained in step (c) or the outgassed mixture obtained in step (d) by casting, injection or vacuum assisted transfer into a mold on said tank, whereby a fire-proof material comprising a matrix of thermosetting elastomeric resin wherein endothermic fillers are incorporated is obtained, said matrix of thermosetting elastomeric resin being a matrix of silicone resin. a) preparing a mixture comprising at least one precursor of the thermosetting elastomeric resin and at least one endothermic filler, said step (a) being performed at room temperature ; b) optionally outgassing the mixture obtained in step (a); c) adding, to the mixture obtained in step (a) or to the outgassed mixture obtained in step (b), an agent enabling said thermosetting elastomeric resin to be obtained from said precursor, said step (c) being performed at room temperature ; d) optionally outgassing the mixture obtained in step (c) ; e) cold shaping the mixture obtained in step (c) or the outgassed mixture obtained in step (d) by casting, injection or vacuum assisted transfer into a mold on said tank,
A method carried out by a user equipment, UE, in a Radio Access Network, RAN, the method comprising: transmitting a power headroom control element from the UE to a base station in the RAN, Wherein the power headroom control element is structured to comprise a power headroom field containing power headroom information and having a predetermined number of bits in the power headroom control element; and an indicator field associated with the power headroom field; wherein the indicator field serves to indicate whether a transmission power field with a predetermined number of bits is present in the power headroom control element. transmitting a power headroom control element from the UE to a base station in the RAN, Wherein the power headroom control element is structured to comprise a power headroom field containing power headroom information and having a predetermined number of bits in the power headroom control element; and an indicator field associated with the power headroom field; wherein the indicator field serves to indicate whether a transmission power field with a predetermined number of bits is present in the power headroom control element.
A distributed cache data system comprising: a client cache, a distributed file system , and a cache adapter , the cache adapter comprises: means for reserving a designated portion of memory in at least one node in a networked cluster of machines as a contiguous space, wherein the designated portion of memory forms a cache and comprises data cells configured to store data; means for interfacing the client cache at a front-end of the distributed cache data system and the distributed file system at a back-end of the distributed cache data system, wherein the distributed file system bi-directionally synchronizes with the client cache; means for interfacing external clients at the front-end of the distributed cache data system to access the data via a web server ; means for bi-directionally communicating to external clients via the web server; means for directing access requests to the appropriate data cells; and means for processing incoming requests via a lightweight application server embedded within the cache adapter. a client cache, a distributed file system , and a cache adapter , the cache adapter comprises: means for reserving a designated portion of memory in at least one node in a networked cluster of machines as a contiguous space, wherein the designated portion of memory forms a cache and comprises data cells configured to store data; means for interfacing the client cache at a front-end of the distributed cache data system and the distributed file system at a back-end of the distributed cache data system, wherein the distributed file system bi-directionally synchronizes with the client cache; means for interfacing external clients at the front-end of the distributed cache data system to access the data via a web server ; means for bi-directionally communicating to external clients via the web server; means for directing access requests to the appropriate data cells; and means for processing incoming requests via a lightweight application server embedded within the cache adapter. means for reserving a designated portion of memory in at least one node in a networked cluster of machines as a contiguous space, wherein the designated portion of memory forms a cache and comprises data cells configured to store data; means for interfacing the client cache at a front-end of the distributed cache data system and the distributed file system at a back-end of the distributed cache data system, wherein the distributed file system bi-directionally synchronizes with the client cache; means for interfacing external clients at the front-end of the distributed cache data system to access the data via a web server ; means for bi-directionally communicating to external clients via the web server; means for directing access requests to the appropriate data cells; and means for processing incoming requests via a lightweight application server embedded within the cache adapter.
A tool for mechanical surface treatment comprising a housing , in which there is formed a cavity intended for filling with a hydraulic medium, and comprising at least one roller body , which is exposed to the basic pressure (p 0 ) of the hydraulic medium and is intended for rolling on a workpiece surface to be treated, wherein a single roller body is provided and is arranged at the tip of the housing , wherein the housing is formed as a tubular body, characterised in that the tool has a resonator , which is designed to generate targeted pressure pulses (Δp) in the hydraulic medium having the basic pressure (p 0 ) in such a way that the pressure pulses (Δp) are generated in a manner superimposing the basic pressure (p 0 ), wherein the resonator is built into the housing formed as a tubular body.
A cosmetic composition comprising, as an active ingredient, Dahlia pinnata fermented extract obtained by inoculating Dahlia pinnata extract with one or more Bacillus sp. strains selected from the group consisting of Bacillus licheniformis and Bacillus amyloliquefaciens , and fermenting the extract.
A method for synthesizing an RNA molecule of a given sequence, comprising the following steps: a) determining the fraction for each of the four nucleotides G, A, C and U in said RNA molecule, and b) synthesizing said RNA molecule by in vitro transcription in a sequence-optimized reaction mix, wherein said sequence-optimized reaction mix comprises the four ribonucleoside triphosphates (NTPs) GTP, ATP, CTP and UTP or a modified ribonucleoside triphosphate thereof, wherein the fraction of each of the four ribonucleoside triphosphates in the sequence-optimized reaction mix corresponds to the fraction of the respective nucleotide in said RNA molecule, a buffer, a DNA template, an RNA polymerase, and Mg ++ ions, wherein in the course of the in vitro transcription the sequence-optimized reaction mix is supplemented with a sequence-optimized ribonucleoside triphosphate (NTP) mix comprising the four ribonucleoside triphosphates (NTPs) GTP, ATP, CTP and UTP or a modified ribonucleoside triphosphate thereof, wherein the fraction of each of the four ribonucleoside triphosphates in the sequence-optimized ribonucleoside triphosphate (NTP) mix corresponds to the fraction of the respective nucleotide in said RNA molecule. a) determining the fraction for each of the four nucleotides G, A, C and U in said RNA molecule, and b) synthesizing said RNA molecule by in vitro transcription in a sequence-optimized reaction mix, wherein said sequence-optimized reaction mix comprises the four ribonucleoside triphosphates (NTPs) GTP, ATP, CTP and UTP or a modified ribonucleoside triphosphate thereof, wherein the fraction of each of the four ribonucleoside triphosphates in the sequence-optimized reaction mix corresponds to the fraction of the respective nucleotide in said RNA molecule, a buffer, a DNA template, an RNA polymerase, and Mg ++ ions,
An ophthalmic lens comprising a transparent substrate with a front main face and with a rear main face, at least one of the main faces being coated with a multilayered antireflective coating comprising a stack composed of at least: (i) a wetting layer; (ii) a metal layer, wherein the metal is selected from silver, gold or copper or mixtures thereof; (iii) a protective layer which is able to avoid oxidation of said metal layer, wherein the wetting layer (i) is in direct contact with the metal layer (ii), with the proviso that said multilayered antireflective coating does not comprise silicon nitride and wherein (ii) the metal layer has a physical thickness equal to or higher than 6 nm, characterized in that the multilayered antireflective coating has a total thickness ranging from 50 to 150 nm. (i) a wetting layer; (ii) a metal layer, wherein the metal is selected from silver, gold or copper or mixtures thereof; (iii) a protective layer which is able to avoid oxidation of said metal layer, wherein the wetting layer (i) is in direct contact with the metal layer (ii), with the proviso that said multilayered antireflective coating does not comprise silicon nitride and wherein (ii) the metal layer has a physical thickness equal to or higher than 6 nm, characterized in that the multilayered antireflective coating has a total thickness ranging from 50 to 150 nm.
A piecing arm assembly for an automatic piecing apparatus in a textile ring spinning machine, the piecing arm assembly comprising: at least one arm configured to displace between a first position and a second position; a plurality of guide fingers connected to the at least one arm , said plurality of guide fingers are configured to locate the piecing arm assembly with respect to a delivery drafting roller of the ring spinning machine; at least one roller positioned on the plurality of guide fingers , said the at least one roller is configured to contact the delivery drafting roller in the second position; a movable plate defined with a guide slot connected to a support member extending from the at least one arm , said guide slot is configured to displace linearly along the axis of the roller to align the tail yarn for piecing; a first actuator connected to the movable plate for actuating said movable plate ; and a cutter unit connected to the movable plate , said cutter unit is connected to a second actuator to snip excess tail yarn after piecing. at least one arm configured to displace between a first position and a second position; a plurality of guide fingers connected to the at least one arm , said plurality of guide fingers are configured to locate the piecing arm assembly with respect to a delivery drafting roller of the ring spinning machine; at least one roller positioned on the plurality of guide fingers , said the at least one roller is configured to contact the delivery drafting roller in the second position; a movable plate defined with a guide slot connected to a support member extending from the at least one arm , said guide slot is configured to displace linearly along the axis of the roller to align the tail yarn for piecing; a first actuator connected to the movable plate for actuating said movable plate ; and a cutter unit connected to the movable plate , said cutter unit is connected to a second actuator to snip excess tail yarn after piecing.
A method implemented by a network traffic management system comprising one or more network traffic management apparatuses , server devices, or client devices, the method comprising: scheduling a deployment of a first software module to execute a first service on a computing node based on an availability of general-purpose computing resources at the computing node , the computing node selected from a plurality of computing nodes; analyzing network traffic transiting the computing node during the execution of the first service to determine a hardware accelerator of the computing node is capable of assisting the execution of the first service; in response to determining the hardware accelerator of the computing node is capable of assisting the execution of the first service, dynamically reconfiguring hardware of the computing node to implement the hardware accelerator; using the hardware accelerator to assist with the execution of the first service; and scheduling a deployment of a second software module to execute a second service on the computing node based on the availability of the general-purpose computing resources and the usage of the hardware accelerator on the computing node . scheduling a deployment of a first software module to execute a first service on a computing node based on an availability of general-purpose computing resources at the computing node , the computing node selected from a plurality of computing nodes; analyzing network traffic transiting the computing node during the execution of the first service to determine a hardware accelerator of the computing node is capable of assisting the execution of the first service; in response to determining the hardware accelerator of the computing node is capable of assisting the execution of the first service, dynamically reconfiguring hardware of the computing node to implement the hardware accelerator; using the hardware accelerator to assist with the execution of the first service; and scheduling a deployment of a second software module to execute a second service on the computing node based on the availability of the general-purpose computing resources and the usage of the hardware accelerator on the computing node .
A track maintenance machine , designed to be mobile on a track , for consolidation of a ballast bed underneath a track , including a machine frame supported on an undercarriage and a consolidating device , connected to the machine frame , which comprises at least one consolidating element designed to be lowered, wherein the consolidating device is suitable to apply the ballast bed with a vertical static load, characterized in that the consolidating element is designed as a consolidating plate which, in a working position , is larger in a longitudinal direction of the track than a distance between two sleepers of the track , and that the consolidating plate is arranged to be rotatable by means of a rotation device comprising a drive causing a rotary motion in order to turn the consolidating plate from the working position into a passing position for lowering or raising between two sleepers .
A method for securing an access to a cloud-based application, comprising: receiving an authentication token, wherein the authentication token includes an identity of a user of a client device requesting an access to the cloud-based application; checking if an agent is installed in the client device; and causing at least one of: installation of an agent in the client device and execution of the agent in the client device, when the client device does not include an agent; receiving, from the agent executed in the client device, a client certificate; retrieving, from a compliance server, a device posture of the client device, wherein the device posture is retrieved respective of the received client certificate; identifying an access policy for the client device to access the cloud-based application, wherein the access policy is identified based at least on the retrieved device posture; and determining whether to grant an access to the cloud-based application based in part on the compliance of the client device with the identified access policy. receiving an authentication token, wherein the authentication token includes an identity of a user of a client device requesting an access to the cloud-based application; checking if an agent is installed in the client device; and causing at least one of: installation of an agent in the client device and execution of the agent in the client device, when the client device does not include an agent; receiving, from the agent executed in the client device, a client certificate; retrieving, from a compliance server, a device posture of the client device, wherein the device posture is retrieved respective of the received client certificate; identifying an access policy for the client device to access the cloud-based application, wherein the access policy is identified based at least on the retrieved device posture; and determining whether to grant an access to the cloud-based application based in part on the compliance of the client device with the identified access policy.
An analyte measurement device, comprising: an electronics housing including: a shell having an upper surface with a first aperture defined therein; a mount mated to the shell and having an underside with a second aperture defined therein aligned with the first aperture; a collar disposed between the shell and the mount and including: a third aperture aligned with the first aperture and the second aperture, and a plurality of tabs on an outer periphery of the collar ; a circuit board disposed within the electronics housing and including a plurality of electronic modules, wherein the circuit board is mounted within the electronics housing on the plurality of tabs on the outer periphery of the collar, wherein the circuit board includes a first portion foldable over a second portion , the second portion mounted on the mount and the first portion mounted on the plurality of tabs on the outer periphery of the collar; and an analyte sensor including a tail portion extending through an aperture in the mount and configured to measure an analyte level, a flag portion including a plurality of electrical contacts coupled with the circuit board, and a neck portion interconnecting the tail portion and the flag portion. an electronics housing including: a shell having an upper surface with a first aperture defined therein; a mount mated to the shell and having an underside with a second aperture defined therein aligned with the first aperture; a collar disposed between the shell and the mount and including: a third aperture aligned with the first aperture and the second aperture, and a plurality of tabs on an outer periphery of the collar ; a shell having an upper surface with a first aperture defined therein; a mount mated to the shell and having an underside with a second aperture defined therein aligned with the first aperture; a collar disposed between the shell and the mount and including: a third aperture aligned with the first aperture and the second aperture, and a plurality of tabs on an outer periphery of the collar ; a third aperture aligned with the first aperture and the second aperture, and a plurality of tabs on an outer periphery of the collar ; a circuit board disposed within the electronics housing and including a plurality of electronic modules, wherein the circuit board is mounted within the electronics housing on the plurality of tabs on the outer periphery of the collar, wherein the circuit board includes a first portion foldable over a second portion , the second portion mounted on the mount and the first portion mounted on the plurality of tabs on the outer periphery of the collar; and an analyte sensor including a tail portion extending through an aperture in the mount and configured to measure an analyte level, a flag portion including a plurality of electrical contacts coupled with the circuit board, and a neck portion interconnecting the tail portion and the flag portion.
Method, by which a flowable starting product (AP) is clarified of solids by means of a self-evacuating separator which has a rotatable drum with an inlet , with at least one liquid outlet , with solids outlet openings that are to be opened and closed discontinuously, and with a control unit , in continuous operation in a centrifugal field in the rotating drum , wherein at least one clarified liquid phase - a clear phase (KP) - is discharged continuously, and wherein a solids phase (F) is repeatedly discharged discontinuously - referred to as solids evacuations - from a solids collection space of the drum by means of the solids outlet openings that are to be opened and closed discontinuously, characterized by at least the following steps for controlling and/or monitoring the solids evacuations: 100: carrying out a solids evacuation; 200: sensing a rotational speed of the drum during the solids evacuation in step 100 and ascertaining a reduction in the rotational speed of the drum ; 300: determining the mass (m) of the discharged solids (F) during the solids evacuation of the solids collection space by using the ascertained reduction in the rotational speed from step 200, using a proportionality factor stored in a control unit ; 400: forming the first derivative dn/dt of the change in rotational speed dn over time dt of the drum during the solids evacuation of the solids collection space ; 500: determining the density p of the solids (F) during the solids evacuation of the solids collection space by using the first derivative of the function of the reduction in rotational speed dn over time dt from step 400, using a proportionality factor stored in the control unit ; 600: ascertaining the actual volume (V F ) of the solids (F) of the solids evacuation of step 100 by using the values of the mass (m) and density (p) determined in steps 300 and 500; 700: comparing the actual volume (V F ) of the solids evacuation of step 100, determined in step 600, with a target volume (V TR ) of the solids collection space by determining a difference in volume between the actual volume (V F ) and the target volume (V TR ); 800: adjusting a time interval until a next solids evacuation and/or adjusting a duration of the next solids evacuation as a function of the difference in volume, determined in step 700, between the actual volume (V F ) ascertained in step 600 and the target volume (VTR).
A modified bentonite comprising intercalated bentonite grains having a size of at least 200 nm, wherein each of the intercalated bentonite grains is intercalated with at least two different metal ions selected from the group consisting of the following pairs of ions: Ag + and Cu 2+ ions, Ag + and Zn 2+ ions, Ag + and Ni 2+ ions.