mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a network node that is associated with a Maintenance Entity, ME, and is operable in an Ethernet Connectivity and Fault Management, CFM, domain, the node comprises a Link Aggregation Group, LAG, connection comprising two or more ports that are connectable to respective two or more physical network links as to cooperatively form a single logical link that is a Link Aggregation Group, LAG, and each of the two or more physical network links is a LAG member , the method comprising: receiving, by the node, a non-CFM message; selecting, by the node, a LAG member according to a balancing algorithm ; and sending, by the node, the non-CFM message to the selected LAG member; characterized in that the method further comprising: receiving, by the node, a CFM message that includes a LAG member field identifying a single LAG member out of the two or more LAG members; forwarding the received CFM message over the LAG member identified in the LAG member field ; and verifying the functioning of the identified LAG member by receiving and analyzing the forwarded CFM message. receiving, by the node, a non-CFM message; selecting, by the node, a LAG member according to a balancing algorithm ; and sending, by the node, the non-CFM message to the selected LAG member; receiving, by the node, a CFM message that includes a LAG member field identifying a single LAG member out of the two or more LAG members; forwarding the received CFM message over the LAG member identified in the LAG member field ; and verifying the functioning of the identified LAG member by receiving and analyzing the forwarded CFM message.
An airbag for an automotive vehicle comprising a fastening element for mounting the airbag on the automotive vehicle, an airbag wall including opposing wall portions and an elongated flexible tether for positioning the airbag in its deployed state which extends from a first tether end to an opposed second tether end , characterized in that the tether extends in a single layer between the first tether end and the second tether end so that an airbag retaining force of exactly one tether cross-section is transferred, wherein exclusively the first tether end of the tether is connected to the airbag wall and the fastening element is arranged on the second tether end by means of a sling connection.
A kit for parasite-specific DNA target capture and polymerase chain reaction detection of a Dirofilaria immitis infection in an animal host comprising, a) labeled DNA complementary to a repetitive species-specific Dirofilaria immitis target DNA having a first strand (SEQ ID NO:1) and a second strand (SEQ ID NO:2), and b) a capture medium that binds a capture DNA, wherein the labeled DNA comprises a conjugation moiety. a) labeled DNA complementary to a repetitive species-specific Dirofilaria immitis target DNA having a first strand (SEQ ID NO:1) and a second strand (SEQ ID NO:2), and b) a capture medium that binds a capture DNA,
Method implemented in a communication system comprising a plurality of routers , a first network probe being associated with a first router of said plurality of routers and with a first end-point of the first router , a second network probe being associated with a second router of said plurality of routers and with a second end-point of the first router , each network probe being configured to take data rate measurements of data entering a communication tunnel between the first end-point and the second end-point and exiting said communication tunnel, the method comprising the following steps within the context of monitoring traffic in the communication tunnel: - periodically injecting, by way of the first network probe, in parallel with the traffic of the communication tunnel, flag packets delimiting time periods over which the data rate measurements are made, each flag packet including timestamp information expressing an injection time reference for said flag packet, and each network probe having access to the data plane of the router associated therewith in order to be able to inject the flag packets in order to time the data rate measurements in the communication tunnel and to capture the volume of packets transmitted in the communication tunnel and the flag packets related thereto; - gathering information relating to a timing variation of a data stream in the communication tunnel, the timing variation of a data stream being measured thanks to a difference between the timestamp information contained in the flag packets and timestamp information relating to an instant at which said flag packets were captured by the second network probe; - assessing possible congestion situations experienced by the communication tunnel as a function of said gathered information. - periodically injecting, by way of the first network probe, in parallel with the traffic of the communication tunnel, flag packets delimiting time periods over which the data rate measurements are made, each flag packet including timestamp information expressing an injection time reference for said flag packet, and each network probe having access to the data plane of the router associated therewith in order to be able to inject the flag packets in order to time the data rate measurements in the communication tunnel and to capture the volume of packets transmitted in the communication tunnel and the flag packets related thereto; - gathering information relating to a timing variation of a data stream in the communication tunnel, the timing variation of a data stream being measured thanks to a difference between the timestamp information contained in the flag packets and timestamp information relating to an instant at which said flag packets were captured by the second network probe; - assessing possible congestion situations experienced by the communication tunnel as a function of said gathered information.
A rubbing roller for rubbing an alignment layer of a liquid crystal display substrate, comprising a rotary roller and a rubbing cloth substantially surrounding a circumferential surface of the rotary roller ; characterised in that the rubbing cloth comprises at least a first portion and a second portion , each having a width (WA, WB) substantially corresponding to a length of the rotary roller and a length (LA, LB) corresponding to a division of a circumference of the rotary roller ; substantially all fibers of the first portion extending away from the rotary roller and leaning towards a first end of the rotary roller , and substantially all fibers of the second portion extending away from the rotary roller and leaning towards a second end of the rotary roller .
A versatile compact, powered air precleaner for separating heavier-than-air particulate debris from debris laden air to provide a clean airflow, the powered air precleaner extending along a longitudinal axis between first and second axial ends thereof and comprising: a motor-driven fan with a fan blade located in a flow path in the powered air precleaner , the flow path extending through the powered air precleaner from an inlet at the first axial end to the second axial end where the flow path is retroflexed en route to an outlet intermediate the axial ends, air flow management structure positioned along the flow path to rotate debris laden air drawn into the inlet about the axis to form a rotating flow that stratifies the debris laden air with the heaviest particles in the outermost orbits of the rotating flow, a separator chamber in the flow path at the second axis end for centrifugally separating the removing debris laden air from the rotating flow, at least one ejector port through which particulate debris laden air is ejected from the rotating flow in the separator chamber , an air filter which forms an inner wall of the separator chamber for filtering air from the innermost orbits of the rotating flow, the air filter having an internal passage which forms a portion of the retroflexed flow path through which filtered air flows en route to the outlet . a motor-driven fan with a fan blade located in a flow path in the powered air precleaner , the flow path extending through the powered air precleaner from an inlet at the first axial end to the second axial end where the flow path is retroflexed en route to an outlet intermediate the axial ends, air flow management structure positioned along the flow path to rotate debris laden air drawn into the inlet about the axis to form a rotating flow that stratifies the debris laden air with the heaviest particles in the outermost orbits of the rotating flow, a separator chamber in the flow path at the second axis end for centrifugally separating the removing debris laden air from the rotating flow, at least one ejector port through which particulate debris laden air is ejected from the rotating flow in the separator chamber , an air filter which forms an inner wall of the separator chamber for filtering air from the innermost orbits of the rotating flow, the air filter having an internal passage which forms a portion of the retroflexed flow path through which filtered air flows en route to the outlet .
A method performed by a wireless device in a first wireless communication system that is deployed on a physical resource block, PRB, the method comprising: receiving information indicating a PRB offset and a corresponding channel raster offset, wherein the channel raster offset is an offset in frequency between a channel raster, used by the wireless device in a cell search process, and the PRB, wherein the PRB offset indicates an offset between the PRB and a middle PRB on which a second wireless communication system is deployed, and wherein, in the frequency domain, the second wireless communication system is deployed on at least one higher frequency resource above the middle PRB and at least one lower frequency resource below the middle PRB; and determining , based on the received information, an adjustment in frequency applicable for the PRB on which the first wireless communication system is deployed. receiving information indicating a PRB offset and a corresponding channel raster offset, wherein the channel raster offset is an offset in frequency between a channel raster, used by the wireless device in a cell search process, and the PRB, wherein the PRB offset indicates an offset between the PRB and a middle PRB on which a second wireless communication system is deployed, and wherein, in the frequency domain, the second wireless communication system is deployed on at least one higher frequency resource above the middle PRB and at least one lower frequency resource below the middle PRB; and determining , based on the received information, an adjustment in frequency applicable for the PRB on which the first wireless communication system is deployed.
A lifting device for raising and lowering a contact member , the lifting device comprising: an actuator configured to move the contact member between a lowered position and a raised position, wherein in a first mode of operation of the lifting device , the actuator moves the contact member from the lowered position to the raised position without rotating the contact member about a reference axis, and characterized in that : wherein in a second mode of operation of the lifting device , the actuator permits rotational motion of the contact member about the reference axis from the raised position to a modified raised position, and the actuator restricts linear movement of the contact member in a direction that is parallel to the reference axis. wherein in a second mode of operation of the lifting device , the actuator permits rotational motion of the contact member about the reference axis from the raised position to a modified raised position, and the actuator restricts linear movement of the contact member in a direction that is parallel to the reference axis.
An ice making device comprising: an ice making chamber comprising an ice making container to accommodate ice making water therein; a cooler configured to supply cool air to the ice making chamber to cool the ice making water; an ice making fan configured to circulate the supplied cool air; an ice making heater configured to supply heat to the ice making water when the ice making water is cooled; and characterized by further comprising: a controller implemented as a processor, configured to: identify whether a rate of change of temperature of the ice making container is within a range preset to correspond to a currently executed ice making mode from among a plurality of ice making modes making ice having different transparency; and based on the rate of change of temperature of the ice making container being not within the preset range of change, control the ice making fan and the ice making heater to adjust the rate of change of temperature of the ice making container within the preset range of change to generate a type of ice corresponding to the preset range of change from among a plurality of types of ice having different transparency. an ice making chamber comprising an ice making container to accommodate ice making water therein; a cooler configured to supply cool air to the ice making chamber to cool the ice making water; an ice making fan configured to circulate the supplied cool air; an ice making heater configured to supply heat to the ice making water when the ice making water is cooled; and characterized by further comprising: a controller implemented as a processor, configured to: identify whether a rate of change of temperature of the ice making container is within a range preset to correspond to a currently executed ice making mode from among a plurality of ice making modes making ice having different transparency; and based on the rate of change of temperature of the ice making container being not within the preset range of change, control the ice making fan and the ice making heater to adjust the rate of change of temperature of the ice making container within the preset range of change to generate a type of ice corresponding to the preset range of change from among a plurality of types of ice having different transparency. identify whether a rate of change of temperature of the ice making container is within a range preset to correspond to a currently executed ice making mode from among a plurality of ice making modes making ice having different transparency; and based on the rate of change of temperature of the ice making container being not within the preset range of change, control the ice making fan and the ice making heater to adjust the rate of change of temperature of the ice making container within the preset range of change to generate a type of ice corresponding to the preset range of change from among a plurality of types of ice having different transparency.
A wear assembly for an earth working equipment, comprising a base on the earth working equipment and a ground-engaging wear member comprising a front working portion and a rear mounting portion , the rear mounting portion including a rear end and a cavity that opens rearward in the rear end for receiving the base , the base having an opening extending transversely through the base and a recess about the opening on one wall of the base for receiving a retainer of a lock to secure the wear member to the base , the cavity being defined by cavity walls , at least a first of the cavity walls including (i) a hole for receiving a lock body to engage the retainer , and (ii) a slot that opens in the rear end and in the hole to receive a key of the retainer , characterized by the slot including a pair of spaced, opposing and parallel bearing surfaces to bear against complementary surfaces on the key to prevent turning of the retainer in the recess when the lock is being installed.
A compound of Formula (I) wherein R 1 is selected from the group consisting of hydrogen, -CH 3 , -CCH, -OCH 3 and halogen R 2 is hydrogen or halogen R 3 is hydrogen or halogen R 4 is hydrogen or -CH 3 and at least one of R 1 , R 2 and R 3 is not hydrogen or a salt thereof. R 1 is selected from the group consisting of hydrogen, -CH 3 , -CCH, -OCH 3 and halogen R 2 is hydrogen or halogen R 3 is hydrogen or halogen R 4 is hydrogen or -CH 3 and at least one of R 1 , R 2 and R 3 is not hydrogen or a salt thereof.
A video encoding method comprising: encoding (S502) a series of images of original video data into an encoded video stream comprising intra frames and inter frames, wherein the inter frames are P and/or B-frames and are organized in a hierarchical prediction pattern comprising a plurality of temporal layers; characterized by : adding (S504) to the encoded video stream a hidden inter frame for at least some of the intra frames, wherein each hidden inter frame: corresponds to an intra frame, is based on same original video data as the intra frame the hidden inter frame corresponds to, and is referring to a previous intra frame in the encoded video stream. encoding (S502) a series of images of original video data into an encoded video stream comprising intra frames and inter frames, wherein the inter frames are P and/or B-frames and are organized in a hierarchical prediction pattern comprising a plurality of temporal layers; characterized by : adding (S504) to the encoded video stream a hidden inter frame for at least some of the intra frames, wherein each hidden inter frame: corresponds to an intra frame, is based on same original video data as the intra frame the hidden inter frame corresponds to, and is referring to a previous intra frame in the encoded video stream. corresponds to an intra frame, is based on same original video data as the intra frame the hidden inter frame corresponds to, and is referring to a previous intra frame in the encoded video stream.
A method for detecting an anomaly in a hidden portion of a first layer of a multi-layer structure , wherein the multi-layer structure comprises a hole through which a fastener extends and characterised by the hidden portion being proximate the hole with the hidden portion being covered or otherwise visibly obstructed by another layer of the multi-layer structure, and by the first layer further comprising an exposed portion spaced apart from the hole and being visible without being covered or otherwise obscured by any other layer of the multi-layer structure, the method comprising: providing a monitoring element on at least one exposed end of the fastener; providing another monitoring element on the exposed portion of the first layer; introducing an inspection signal into the multi-layer structure including the hidden portion of the first layer with at least one of the monitoring elements; sensing the inspection signal with at least another one of the monitoring elements following the propagation of the inspection signal through at least a portion of the multi-layer structure including the hidden portion of the first layer; and detecting the anomaly in the hidden portion of the first layer based upon the inspection signal that has been sensed. providing a monitoring element on at least one exposed end of the fastener; providing another monitoring element on the exposed portion of the first layer; introducing an inspection signal into the multi-layer structure including the hidden portion of the first layer with at least one of the monitoring elements; sensing the inspection signal with at least another one of the monitoring elements following the propagation of the inspection signal through at least a portion of the multi-layer structure including the hidden portion of the first layer; and detecting the anomaly in the hidden portion of the first layer based upon the inspection signal that has been sensed.
A polypeptide having an amino acid sequence selected from the group consisting of GCSMNPARSFGC (SEQ ID NO: 5), CMNPARSFGC (SEQ ID NO: 6), CWPSALPTC (SEQ ID NO: 2); and CNNNTTQGC (SEQ ID NO: 3).
A process for the production of a three-dimensional green body (GB) by a three-dimensional printing process employing at least one feedstock, a built chamber and a three-dimensional extrusion printer (3D printer) containing at least one nozzle, the process comprising the following steps a) to e): a) feeding the at least one feedstock into the 3D printer containing the at least one nozzle, wherein the at least one feedstock comprises at least one binder (B) and at least one inorganic powder (IP), and wherein the at least one binder (B) comprises at least one polyoxymethylene (POM), b) heating the at least one feedstock inside the 3D printer, c) extruding the at least one heated feedstock obtained in step b) through the at least one nozzle in order to obtain at least one extruded strand, d) forming the three-dimensional green body (GB) layer by layer from the at least one extruded strand obtained in step c) on a base plate (BP) located in the build chamber, wherein the base plate (BP) comprises the at least one binder (B) and optionally the at least one inorganic powder (IP), and e) removing the three-dimensional green body (GB) and the base plate (BP) from the build chamber, wherein the three-dimensional green body (GB) is attached to the base plate (BP). a) feeding the at least one feedstock into the 3D printer containing the at least one nozzle, wherein the at least one feedstock comprises at least one binder (B) and at least one inorganic powder (IP), and wherein the at least one binder (B) comprises at least one polyoxymethylene (POM), b) heating the at least one feedstock inside the 3D printer, c) extruding the at least one heated feedstock obtained in step b) through the at least one nozzle in order to obtain at least one extruded strand, d) forming the three-dimensional green body (GB) layer by layer from the at least one extruded strand obtained in step c) on a base plate (BP) located in the build chamber, wherein the base plate (BP) comprises the at least one binder (B) and optionally the at least one inorganic powder (IP), and e) removing the three-dimensional green body (GB) and the base plate (BP) from the build chamber, wherein the three-dimensional green body (GB) is attached to the base plate (BP).
Carbodiimides of formula (I) in which R may be identical or different and is selected from -NCN-R I and -NHCOOR III , wherein R I represents C 1 -C 22 -alkyl, C 6 -C 12 -cycloalkyl, C 6 -C 18 -aryl or C 6 -C 18 -aralkyl, preferably triisopropylphenyl, and R III represents an alkylated polyoxyalkylene radical, R 1 , R 2 and R 3 each independently of one another represent methyl, i-propyl or n-propyl, wherein on each benzene ring one of the radicals R 1 , R 2 and R 3 is methyl and n is from 0 to 500, preferably from 1 to 50. R may be identical or different and is selected from -NCN-R I and -NHCOOR III , wherein R I represents C 1 -C 22 -alkyl, C 6 -C 12 -cycloalkyl, C 6 -C 18 -aryl or C 6 -C 18 -aralkyl, preferably triisopropylphenyl, and R III represents an alkylated polyoxyalkylene radical, R 1 , R 2 and R 3 each independently of one another represent methyl, i-propyl or n-propyl, wherein on each benzene ring one of the radicals R 1 , R 2 and R 3 is methyl and n is from 0 to 500, preferably from 1 to 50.
A modified conjugated diene-based polymer having a nitrogen atom and a silicon atom, wherein a content of the nitrogen atom is 25 mass ppm or more based on a total amount of the modified conjugated diene-based polymer, a content of the silicon atom is 10 ppm or more based on the total amount of the modified conjugated diene-based polymer, a shrinking factor (g') is 0.59 or less in a GPC-light scattering measurement method with a viscosity detector, and a weight average molecular weight is 200,000 or more and 3,000,000 or less.