mhurhangee/patent-ind-claim-en huggingface dataset:
A gland for securing tubes or cables to a box, the gland comprising: - a retention element configured to surround two or more tubes or cables , the retention element having at least two connecting ends mutually approachable to tighten the retention element on the tubes or cables , - a gland body extending along an axial direction (X-X) between a first end and a second end and having an axis (X) extending along the axial direction (X-X), the gland body defining a passing through channel extending along the axial direction (X-X) between the first end and the second end and configured to receive the tubes or cables passing through the first and second ends , the gland body surrounding at least partially the retention element , the gland comprises an anti-torsion arrangement configured to prevent mutual rotation about the axis (X) of the gland body relative to the retention element , the anti-torsion arrangement comprises: - one or more first anti-torsion elements associated with the retention element , each first anti-torsion element comprises a seat , - one or more second anti-torsion elements associated with the gland body , each second anti-torsion element comprises a protrusion configured to engage and fit in the seat to prevent mutual rotation of the gland body relative to the retention element about the axis (X), wherein - the first anti-torsion element is formed on an outer surface of the retention element ; - the second anti-torsion element is formed on an inner surface of the gland body , - the seat extends along the axial direction (X-X) at least partially along the outer surface of the retention element ; - the protrusion extends at least partially along the inner surface of the gland body . - a retention element configured to surround two or more tubes or cables , the retention element having at least two connecting ends mutually approachable to tighten the retention element on the tubes or cables , - a gland body extending along an axial direction (X-X) between a first end and a second end and having an axis (X) extending along the axial direction (X-X), the gland body defining a passing through channel extending along the axial direction (X-X) between the first end and the second end and configured to receive the tubes or cables passing through the first and second ends , the gland body surrounding at least partially the retention element , - one or more first anti-torsion elements associated with the retention element , each first anti-torsion element comprises a seat , - one or more second anti-torsion elements associated with the gland body , each second anti-torsion element comprises a protrusion configured to engage and fit in the seat to prevent mutual rotation of the gland body relative to the retention element about the axis (X), - the first anti-torsion element is formed on an outer surface of the retention element ; - the second anti-torsion element is formed on an inner surface of the gland body , - the seat extends along the axial direction (X-X) at least partially along the outer surface of the retention element ; - the protrusion extends at least partially along the inner surface of the gland body .
A riveting structure of an electrode terminal the riveting structure comprising: a battery can opened at one side thereof; an electrode terminal riveted through a through-hole formed in a bottom of the battery can , and a gasket interposed between the battery can and the electrode terminal , wherein the electrode terminal comprises: a body portion inserted into the through-hole ; an outer flange portion extending along an outer surface of the bottom of the battery can from a periphery of a first side of the body portion exposed through the outer surface of the bottom of the battery can , and an inner flange portion extending toward an inner surface of the bottom of the battery can from a periphery of a second side of the body portion exposed through the inner surface of the bottom of the battery can , wherein the body portion and the outer flange portion respectively have inner cavities (P) connected to each other, and wherein the inner flange portion has an opening portion connected to the inner cavities (P) and opened in a direction toward an inside of the battery can . a battery can opened at one side thereof; an electrode terminal riveted through a through-hole formed in a bottom of the battery can , and a gasket interposed between the battery can and the electrode terminal , wherein the electrode terminal comprises: a body portion inserted into the through-hole ; an outer flange portion extending along an outer surface of the bottom of the battery can from a periphery of a first side of the body portion exposed through the outer surface of the bottom of the battery can , and an inner flange portion extending toward an inner surface of the bottom of the battery can from a periphery of a second side of the body portion exposed through the inner surface of the bottom of the battery can , wherein the body portion and the outer flange portion respectively have inner cavities (P) connected to each other, and wherein the inner flange portion has an opening portion connected to the inner cavities (P) and opened in a direction toward an inside of the battery can . a body portion inserted into the through-hole ; an outer flange portion extending along an outer surface of the bottom of the battery can from a periphery of a first side of the body portion exposed through the outer surface of the bottom of the battery can , and an inner flange portion extending toward an inner surface of the bottom of the battery can from a periphery of a second side of the body portion exposed through the inner surface of the bottom of the battery can , wherein the body portion and the outer flange portion respectively have inner cavities (P) connected to each other, and wherein the inner flange portion has an opening portion connected to the inner cavities (P) and opened in a direction toward an inside of the battery can .
Sow housing for piecemeal sowing of seeds, which sow housing comprises a seed bin and a rotating seed element having a wall formed by a disc that has a plurality of through holes , each hole being arranged to, during a first part of the revolution of the hole , retain a seed as a consequence of pressure difference between the two sides of the wall, which pressure difference is accomplished by a positive pressure being maintained on the side of the wall where the seeds are situated, and each hole being arranged to, during a second part of the revolution of the hole, pass a release area (SL) for the removal of seed from the hole, characterized in that a cover means is arranged on the same side of the wall at which the seeds are retained and is arranged to cover each hole during a third part of the revolution of the hole, which third part is 1/8-1/2 of a revolution.
Power station plant comprising a multistage compressor with intermediate cooling, a combustion chamber , a turbine located downstream of the combustion chamber , a compressor air conduit which connects the compressor to the combustion chamber and a first heat exchanger installed in the compressor air conduit and in an exhaust gas conduit branching off from the turbine , wherein the power station plant comprises a device for regasifying liquid natural gas having a natural gas conduit , wherein a heat transfer device is installed between two compressor stages of the compressor and in the natural gas conduit , characterized in that a first compressor air expander is arranged in the compressor air conduit between the first heat exchanger and the combustion chamber .
A method of encoding video data including a plurality of pictures, the method comprising: performing intra-picture prediction on a block of one of the plurality of pictures to generate a prediction unit, wherein performing the intra-picture prediction comprises: selecting, for intra-block copy prediction, a reference block from a coding tree unit (CTU), wherein the reference block is selected from a plurality of prediction blocks, and wherein selecting a reference block comprises excluding one or more prediction blocks of the CTU for intra-block copy prediction in response to the one or more prediction blocks being both encoded using bi-prediction and having a size less than a threshold; and performing intra-block copy prediction with the selected reference block to generate the prediction unit; and generating syntax elements encoding the prediction unit based on the performed intra-picture prediction. performing intra-picture prediction on a block of one of the plurality of pictures to generate a prediction unit, wherein performing the intra-picture prediction comprises: selecting, for intra-block copy prediction, a reference block from a coding tree unit (CTU), wherein the reference block is selected from a plurality of prediction blocks, and wherein selecting a reference block comprises excluding one or more prediction blocks of the CTU for intra-block copy prediction in response to the one or more prediction blocks being both encoded using bi-prediction and having a size less than a threshold; and performing intra-block copy prediction with the selected reference block to generate the prediction unit; and selecting, for intra-block copy prediction, a reference block from a coding tree unit (CTU), wherein the reference block is selected from a plurality of prediction blocks, and wherein selecting a reference block comprises excluding one or more prediction blocks of the CTU for intra-block copy prediction in response to the one or more prediction blocks being both encoded using bi-prediction and having a size less than a threshold; and performing intra-block copy prediction with the selected reference block to generate the prediction unit; and generating syntax elements encoding the prediction unit based on the performed intra-picture prediction.
A porous polytetrafluoroethylene membrane having an average fibril length of 50 μm or more and 90 μm or less, having an average node length 5 or more times larger than the average fibril length, and having an average node area ratio of 5% or less, wherein the average fibril length, the average node length, and the average node area ratio are determined as described in the description.
A mixing console for controlling signal processing on audio signals of a plurality of channels, said mixing console comprising a plurality of operating regions provided by dividing an operation panel of the mixing console into a plurality of regions, a plurality of channels being allocated to each of the plurality of operating regions, each of the plurality of operating regions including a channel selector, each of the plurality of channel selectors configured to select one of the plurality of channels allocated to the operating region corresponding to the channel selector, wherein the operating region corresponding to the channel selector is configured to set a plurality of parameters for signal processing on an audio signal of the one channel selected by the channel selector.
Shut-off device for filling a container with a liquid, the shut-off device comprising: - a housing including a valve for enabling a liquid flow through a liquid path provided within the housing ; - a control element for opening the valve in order to enable a liquid flow through the liquid path ; and - a closing mechanism for automatically closing the valve dependent on the liquid level within the container; wherein the closing mechanism comprises a deflector portion (6.1) arranged within the housing for receiving a liquid jet, said deflector portion (6.1) being coupled with a lever (6.2), said lever (6.2) being operatively coupled with the valve , characterized in that the shut-off device further comprises liquid jet variation means configured to vary the force of the liquid jet applied to the deflector portion (6.1) depending on the liquid level within the container and wherein the lever (6.2) is configured to control the valve based on the force of the liquid jet applied to the deflector portion (6.1). - a housing including a valve for enabling a liquid flow through a liquid path provided within the housing ; - a control element for opening the valve in order to enable a liquid flow through the liquid path ; and - a closing mechanism for automatically closing the valve dependent on the liquid level within the container;
A depressor foil for submerging a towed cable comprising a body with a foil shape having a leading edge and a trailing edge , which define a chord length therebetween, and further defining a cambered first surface extending between the leading edge and the trailing edge configured to provide negative lift; a relatively flat second surface with respect to the first surface extending between the leading edge and the trailing edge; a first lateral side that extends between a first lateral edge of the first surface, a first lateral edge of the second surface, the leading edge, and the trailing edge; and a second lateral side that extends between a second lateral edge of the first surface, a second lateral edge of the second surface, the leading edge, and the trailing edge; a first tubular conduit configured to receive a cable or rod therethrough, defined within the body and extending laterally therein adjacent to the leading edge and opening to each of the first and second lateral sides; a second tubular conduit configured to receive a cable or rod therethrough, defined within the body and extending laterally therein adjacent to, aft of, and parallel to the first tubular conduit and opening to each of the first and second lateral sides, wherein the first and second tubular conduits are positioned within a forward half of the chord length.
A device for handling an easily polymerizable compound into which a vapor of the easily polymerizable compound is supplied, comprising: a condensation part in which the easily polymerizable compound may be condensed inside the device; a spreader for the condensation part for spreading a polymerization inhibitor on the condensation part; a polymerization inhibitor supply tube for supplying the polymerization inhibitor to the spreader for the condensation part; and a support means for supporting the spreader for the condensation part at a predetermined position inside the device, wherein: the support means is a means for supporting the polymerization inhibitor supply tube at the inside of the device; and the device further comprises a spread means for the support means for spreading the polymerization inhibitor on the support means. a condensation part in which the easily polymerizable compound may be condensed inside the device; a spreader for the condensation part for spreading a polymerization inhibitor on the condensation part; a polymerization inhibitor supply tube for supplying the polymerization inhibitor to the spreader for the condensation part; and a support means for supporting the spreader for the condensation part at a predetermined position inside the device, wherein: the support means is a means for supporting the polymerization inhibitor supply tube at the inside of the device; and the device further comprises a spread means for the support means for spreading the polymerization inhibitor on the support means. the support means is a means for supporting the polymerization inhibitor supply tube at the inside of the device; and the device further comprises a spread means for the support means for spreading the polymerization inhibitor on the support means.
PTC heating element with at least one PTC element provided between strip conductors , and an insulating mass sealing at least one of the strip conductors and/or the PTC element over the whole circumference, wherein the insulating mass is applied as a glue bead which seals the strip conductor and/or the PTC element circumferentially, characterized in that the insulating mass is laid against free front side edges of the strip conductor and at least in part against free front side edges of the PTC element .
Use, for improving the cold-resistance properties of a fuel or combustible composition, of one or more copolymers comprising: - from 70 to 95% in moles of at least one unit of the following formula (I): wherein R 1 is a hydrogen atom or a methyl group, X is -O-CO-, or -CO-O- or -NH-CO- or -CO-NH-, and R 2 is a C 8 to C 24 linear or branched acyclic alkyl radical; and - from 5 to 30% in moles of at least one unit of the following formula (II): wherein R is a substituted or unsubstituted imidazole ring. - from 70 to 95% in moles of at least one unit of the following formula (I): wherein R 1 is a hydrogen atom or a methyl group, X is -O-CO-, or -CO-O- or -NH-CO- or -CO-NH-, and R 2 is a C 8 to C 24 linear or branched acyclic alkyl radical; and R 1 is a hydrogen atom or a methyl group, X is -O-CO-, or -CO-O- or -NH-CO- or -CO-NH-, and R 2 is a C 8 to C 24 linear or branched acyclic alkyl radical; and - from 5 to 30% in moles of at least one unit of the following formula (II): wherein R is a substituted or unsubstituted imidazole ring.
A gas turbine assembly comprising an axial fuel staging (AFS) system , the assembly including a combustion zone defined in part by a sleeve assembly , said AFS system comprising: a primary fuel injector ; and a secondary fuel injector downstream from the primary fuel injector comprising: a manifold ; a housing coupled to said manifold and mounted to the sleeve assembly at an opening defined in the sleeve assembly , said housing defines an interior chamber therein; and a nozzle positioned within said interior chamber , said nozzle comprising an array of mixing tubes that each comprise a proximal end , a distal end , and a perforated body including a plurality of perforations extending therebetween, said proximal ends coupled in flow communication with said manifold and said perforations of each body in flow communication with said interior chamber to facilitate discharging a mixture of fuel and compressed gas from said distal ends ; wherein said array comprises a plurality of rows of said mixing tubes ; and wherein said mixing tubes in a first of said rows are offset relative to said mixing tubes in a second of said rows . a primary fuel injector ; and a secondary fuel injector downstream from the primary fuel injector comprising: a manifold ; a housing coupled to said manifold and mounted to the sleeve assembly at an opening defined in the sleeve assembly , said housing defines an interior chamber therein; and a nozzle positioned within said interior chamber , said nozzle comprising an array of mixing tubes that each comprise a proximal end , a distal end , and a perforated body including a plurality of perforations extending therebetween, said proximal ends coupled in flow communication with said manifold and said perforations of each body in flow communication with said interior chamber to facilitate discharging a mixture of fuel and compressed gas from said distal ends ; wherein said array comprises a plurality of rows of said mixing tubes ; and wherein said mixing tubes in a first of said rows are offset relative to said mixing tubes in a second of said rows . a manifold ; a housing coupled to said manifold and mounted to the sleeve assembly at an opening defined in the sleeve assembly , said housing defines an interior chamber therein; and a nozzle positioned within said interior chamber , said nozzle comprising an array of mixing tubes that each comprise a proximal end , a distal end , and a perforated body including a plurality of perforations extending therebetween, said proximal ends coupled in flow communication with said manifold and said perforations of each body in flow communication with said interior chamber to facilitate discharging a mixture of fuel and compressed gas from said distal ends ; wherein said array comprises a plurality of rows of said mixing tubes ; and wherein said mixing tubes in a first of said rows are offset relative to said mixing tubes in a second of said rows .
A method for deep data inspection over an industrial internet field broadband bus comprising two wires, characterized in that , the method being applicable to the industrial internet field broadband bus, wherein respective nodes are connected over network according to their IP address, and the respective nodes are synchronized in clock, wherein the method comprises: receiving, by the first node, the message to be transmitted, transmitted by a second node; wherein the message to be transmitted is generated by the second node upon obtaining a data message, by determining a bus device address corresponding to a destination IP address and a destination MAC address in the data message using a preset three-dimension correspondence relationship between a bus device address, an MAC address, and an IP address according to the destination IP address and the destination MAC address in the data message, and replacing the destination IP address and the destination MAC address in the data message with the bus device address; judging, by the first node, whether a bus device address in the message to be transmitted lies in a preset range of bus device addresses; and if the bus device address lies in the preset range of bus device addresses, then transmitting, by the first node, the message to be transmitted to a processor of the first node. receiving, by the first node, the message to be transmitted, transmitted by a second node; wherein the message to be transmitted is generated by the second node upon obtaining a data message, by determining a bus device address corresponding to a destination IP address and a destination MAC address in the data message using a preset three-dimension correspondence relationship between a bus device address, an MAC address, and an IP address according to the destination IP address and the destination MAC address in the data message, and replacing the destination IP address and the destination MAC address in the data message with the bus device address; judging, by the first node, whether a bus device address in the message to be transmitted lies in a preset range of bus device addresses; and if the bus device address lies in the preset range of bus device addresses, then transmitting, by the first node, the message to be transmitted to a processor of the first node.