mhurhangee/ep-ind-claims huggingface dataset:
A thermal interface material comprising: 1 wt.% to 16 wt.% of at least one polymer matrix material; 0.5 wt.% to 8 wt.% of at least one phase change material; 0.1 wt. % to 1 wt.% of at least one amine or amine-based crosslinker; and at least one thermally conductive filler including a first plurality of particles, wherein the first plurality of particles comprises particles of zinc oxide having a diameter of about 0.1 microns to about 1 micron; wherein the at least one thermally conductive filler comprises a second plurality of particles, wherein the second plurality of particles comprises particles of aluminum having a particle diameter of about 2 microns to about 15 microns; wherein the at least one thermally conductive filler comprises at 80 wt.% of the total weight of the thermal interface material. 1 wt.% to 16 wt.% of at least one polymer matrix material; 0.5 wt.% to 8 wt.% of at least one phase change material; 0.1 wt. % to 1 wt.% of at least one amine or amine-based crosslinker; and at least one thermally conductive filler including a first plurality of particles, wherein the first plurality of particles comprises particles of zinc oxide having a diameter of about 0.1 microns to about 1 micron; wherein the at least one thermally conductive filler comprises a second plurality of particles, wherein the second plurality of particles comprises particles of aluminum having a particle diameter of about 2 microns to about 15 microns; wherein the at least one thermally conductive filler comprises at 80 wt.% of the total weight of the thermal interface material.
A radio unit, comprising: a plurality of transmit/receive, TX/RX paths; a plurality of radio frequency, RF, ports connected with the plurality of TX/RX paths; and a coupling unit, coupled with the plurality of TX/RX paths and configured to inject an uplink, UL, calibration signal into at least one of the plurality of RX paths and extract a downlink, DL, calibration signal from at least one of the plurality of TX paths, wherein the coupling unit is further configured to extract transmit signal power from at least one of the plurality of TX paths to supervise a connection status between the radio unit and an antenna array and wherein the coupling unit comprises a switch array connected to one TX/RX path of the plurality of TX/RX paths, and the one TX/RX path is reused, in a time division manner, for transmitting the UL calibration signal to the coupling unit, receiving the DL calibration signal from the coupling unit, and receiving the extracted transmit signal power from the coupling unit. a plurality of transmit/receive, TX/RX paths; a plurality of radio frequency, RF, ports connected with the plurality of TX/RX paths; and a coupling unit, coupled with the plurality of TX/RX paths and configured to inject an uplink, UL, calibration signal into at least one of the plurality of RX paths and extract a downlink, DL, calibration signal from at least one of the plurality of TX paths, wherein the coupling unit is further configured to extract transmit signal power from at least one of the plurality of TX paths to supervise a connection status between the radio unit and an antenna array and wherein the coupling unit comprises a switch array connected to one TX/RX path of the plurality of TX/RX paths, and the one TX/RX path is reused, in a time division manner, for transmitting the UL calibration signal to the coupling unit, receiving the DL calibration signal from the coupling unit, and receiving the extracted transmit signal power from the coupling unit.
A low-water to water-free liquid machine dishwashing agent having a water content of 20 wt.% or less, which agent contains at least one rinse aid, the rinse aid being a nonionic surfactant, characterized in that the agent further contains at least one hydrophobically modified acrylate polymer or copolymer, selected from C 10 -C 30 alkyl-modified cross-linked polyacrylate, C 10 -C 30 alkyl-modified acrylate/vinyl ester copolymer and mixtures thereof, in a concentration of from 0.02 to 0.8 wt.% based on the agent, characterized in that at least one C 10 -C 30 alkyl-modified acrylate/vinyl ester copolymer is contained.
Control device for a tourniquet, to which a first compression cuff and/or at least one second compression cuff is connectable, wherein the compression cuffs which are connectable have different volume and the tourniquet comprises an inflating device for inflating the connected compression cuff, characterised in that a set of parameters for controlling an inflating process of the respective compression cuff is assigned to each compression cuff and stored in a data memory of the control device, wherein the set of parameters assigned to each compression cuff is dependent on the volume of the compression cuff and defines a time-dependent inflating profile for inflating the compression cuff.
A spring system comprising a housing having an axis; an internal chamber, and axially opposite bottom and top ends (56, 60); a rod member coaxial with said axis and positioned within said internal chamber and having an inner end in said housing and an outer end axially outwardly of said top end of said housing; a guide member on said inner end of said rod member supporting said rod member for reciprocation axially of said housing between retracted and extended positions relative thereto; said guide member dividing said internal chamber into at least two sub-chambers, said guide member including a first passageway that at least partially regulates fluid flow between said at least two sub-chambers during said reciprocation of said rod member, said first passageway fully spaced from an outer edge of said guide member and passing fully through said guide member, wherein said guide member includes a second passageway, said second passageway fully spaced from an outer edge of said guide member and spaced from said first passageway, said second passageway not in fluid communication with said first passageway, characterized in that said second passageway has a maximum fluid flow rate that is less than a maximum fluid flow rate of said first passageway; first and second compression springs (120, 122) are provided each extending between said guide member and the bottom end of said housing when the spring system is in a fully extended position, said first and second springs (120, 122) being coaxial with one another and with said axis, the inner of the first and second coaxial springs (120, 122) having a longer free length than the outer of the first and second coaxial springs (120, 122); top and bottom bushings (70, 80) are provided, said top bushing positioned at said top end of said housing and said bottom bushing positioned at said bottom end of said housing; said top bushing including an opening to enable a portion of said rod member to pass therethrough and to support said rod member for reciprocation axially of said housing between retracted and extended positions relative thereto, said top bushing including seals (90, 92) for sealing the end of the housing from fluid flow into and out of said internal chamber during the use of the spring system; and said outer end of said rod member includes a mounting element.
A rail foot holder, which serves the purpose of fastening a rail of an elevator system in an elevator shaft, with a contact body, which can be arranged in the elevator shaft, and at least one holding device, wherein a contact plane, for a rail foot of the rail, is defined by the contact body, wherein the holding device has a holding head, wherein for purposes of fastening the rail, a first side part of the rail foot can be arranged between the holding head of the holding device and the contact plane, and wherein in the course of fastening the rail, a holding dimension between the holding head of the holding device and the contact plane can be altered to compensate for tolerances on the first side part of the rail foot, wherein for purposes of reducing the holding dimension, the holding head of the holding device can be rotated in a direction of rotation around an axis of rotation of the holding device into a fastening position, characterised in that a side of the holding head of the holding device, facing towards the contact plane, in at least one fastening region extending in the direction of rotation around the axis of rotation of the holding device, in which an at least indirect contact is enabled between the holding head of the holding device and the first side part of the rail foot, is configured with a sloping rise (s) counter to the direction of rotation.
Method for reducing emissions of filling gas when charging oven chambers of a coking oven battery with stamped coal cakes, wherein the oven chamber to be charged is opened on the machine side of the coking oven battery, and a stamped coal cake is introduced into the opened oven chamber, wherein filling gases released when the stamped coal cake is introduced into the hot oven chamber are removed through a filling gas receiver which is connected to the oven chamber, wherein crude gases formed in the closed oven chambers during a coking operation are removed through a crude gas receiver which is connected to the oven chambers and are transferred to a gas treatment procedure that comprises at least one gas scrubbing stage, wherein ports which connect the crude gas receiver and the filling gas receiver to the oven chambers are opened and closed alternatingly, so that the filling gases that are formed when the oven chambers are charged only enter the filling gas receiver, and the crude gases that are formed in the closed oven chambers by coking only enter the crude gas receiver, characterized in that the crude gas receiver extends along the coking oven battery in the form of a collecting pipe and is connected to the oven chambers of the coking oven battery by branch lines, each of which has a shut-off device, and the filling gas receiver extends along the coking oven battery in the form of a collecting pipe and is connected to the oven chambers of the coking oven battery by branch lines, each of which has a shut-off device. wherein the oven chamber to be charged is opened on the machine side of the coking oven battery, and a stamped coal cake is introduced into the opened oven chamber, wherein filling gases released when the stamped coal cake is introduced into the hot oven chamber are removed through a filling gas receiver which is connected to the oven chamber, wherein crude gases formed in the closed oven chambers during a coking operation are removed through a crude gas receiver which is connected to the oven chambers and are transferred to a gas treatment procedure that comprises at least one gas scrubbing stage, wherein ports which connect the crude gas receiver and the filling gas receiver to the oven chambers are opened and closed alternatingly, so that the filling gases that are formed when the oven chambers are charged only enter the filling gas receiver, and the crude gases that are formed in the closed oven chambers by coking only enter the crude gas receiver, characterized in that the crude gas receiver extends along the coking oven battery in the form of a collecting pipe and is connected to the oven chambers of the coking oven battery by branch lines, each of which has a shut-off device, and the filling gas receiver extends along the coking oven battery in the form of a collecting pipe and is connected to the oven chambers of the coking oven battery by branch lines, each of which has a shut-off device.
A high-voltage bushing of a rotating electric machine, characterized by comprising: a hollow conductor penetrating an output terminal box of a rotating electric machine in which a cooling gas is sealed, and fetching an output of the rotating electric machine; an insulator tube provided outside the hollow conductor, and insulating the hollow conductor from the output terminal box; and a seal member preventing a cooling gas in the machine from leaking outside the machine from a jointed portion of the hollow conductor and the insulator tube, the cooling gas in the machine flowing to a machine external direction passing a clearance between the hollow conductor and the insulator tube, and the cooling gas flowing to the machine external direction being guided to an inner circumferential side of the hollow conductor passing a plurality of communicating holes formed in the hollow conductor, and further, the cooling gas guided to the inner circumferential side being guided to a machine internal side of the hollow conductor so that it is exhausted, and the communicating holes being inclined at least toward a circumferential direction of the hollow conductor or toward a machine external side from a direction vertical to a wall surface of the hollow conductor. a hollow conductor penetrating an output terminal box of a rotating electric machine in which a cooling gas is sealed, and fetching an output of the rotating electric machine; an insulator tube provided outside the hollow conductor, and insulating the hollow conductor from the output terminal box; and a seal member preventing a cooling gas in the machine from leaking outside the machine from a jointed portion of the hollow conductor and the insulator tube, the cooling gas in the machine flowing to a machine external direction passing a clearance between the hollow conductor and the insulator tube, and the cooling gas flowing to the machine external direction being guided to an inner circumferential side of the hollow conductor passing a plurality of communicating holes formed in the hollow conductor, and further, the cooling gas guided to the inner circumferential side being guided to a machine internal side of the hollow conductor so that it is exhausted, and the communicating holes being inclined at least toward a circumferential direction of the hollow conductor or toward a machine external side from a direction vertical to a wall surface of the hollow conductor.
A flowmeter comprising: a housing assembly for receiving an inner tube; and fitting assemblies for securing the housing assembly in-line within a pipeline path; characterised in that each of the fitting assemblies includes a drainage reservoir and a tap for draining each of the fitting assemblies of fluid received from the housing assembly. a housing assembly for receiving an inner tube; and fitting assemblies for securing the housing assembly in-line within a pipeline path; characterised in that each of the fitting assemblies includes a drainage reservoir and a tap for draining each of the fitting assemblies of fluid received from the housing assembly.
A fluid-type retarding device, comprising: a rotating disk provided to a rotating shaft; a rotating housing that includes paired disk portions (1a, 1b) and a cylinder portion connecting outer circumferential portions of the disk portions (1a, 1b) so as to surround the rotating disk, and is rotatably supported with the rotating shaft; and a friction brake that presses a friction member (8a, 8b) against the rotating housing at a time of braking to bring the rotating housing to a stop, wherein on at least one surface of the rotating disk, a disk vane (4a, 4b, 40a, 40b) extending from an inner circumference of the surface toward an outer peripheral side is formed, on an inner surface of each of the paired disk portions (1a, 1b) corresponding to the disk vane (4a, 4b, 40a, 40b), a housing vane (5a, 5b, 50a, 50b) extending from an inner circumference to an outer periphery is formed, working fluid is accommodated within the rotating housing, characterized in that the rotating shaft supporting the rotating housing has a tubular body having a space accommodating the working fluid therein, and includes a communicating hole (6a, 6b) that allows an internal space of the rotating housing and an internal space of the rotating shaft to communicate with each other. a rotating disk provided to a rotating shaft; a rotating housing that includes paired disk portions (1a, 1b) and a cylinder portion connecting outer circumferential portions of the disk portions (1a, 1b) so as to surround the rotating disk, and is rotatably supported with the rotating shaft; and a friction brake that presses a friction member (8a, 8b) against the rotating housing at a time of braking to bring the rotating housing to a stop, wherein on at least one surface of the rotating disk, a disk vane (4a, 4b, 40a, 40b) extending from an inner circumference of the surface toward an outer peripheral side is formed, on an inner surface of each of the paired disk portions (1a, 1b) corresponding to the disk vane (4a, 4b, 40a, 40b), a housing vane (5a, 5b, 50a, 50b) extending from an inner circumference to an outer periphery is formed, working fluid is accommodated within the rotating housing, characterized in that the rotating shaft supporting the rotating housing has a tubular body having a space accommodating the working fluid therein, and includes a communicating hole (6a, 6b) that allows an internal space of the rotating housing and an internal space of the rotating shaft to communicate with each other.
Node positioning method for a wireless network, said network comprising nodes whose positions are known, referred to as anchor nodes, and nodes whose positions have to be determined, referred to as regular nodes a. each node measuring the respective strengths of signals received from neighboring nodes, b. channels linking any neighboring nodes are classified into different channel categories; c. path loss parameters are allocated to each of said channels according to the category this channel is classified into, said path loss parameters modelling the path loss of a channel; d. the distances separating each regular node from each of its neighboring nodes, and the respective variances thereof are estimated on the basis of the measured strengths of the signals respectively received from its neighboring nodes and the path loss parameters thus allocated to the channels linking it with each of its neighboring nodes, characterized in that: e. the positions of the regular nodes are estimated by minimizing a cost function depending upon weighted quadratic differences between the distances separating each regular node from its neighboring nodes and corresponding distances estimated from step d, the weights being inversely proportional to the respective variances of these distances, as estimated from step d. a. each node measuring the respective strengths of signals received from neighboring nodes, b. channels linking any neighboring nodes are classified into different channel categories; c. path loss parameters are allocated to each of said channels according to the category this channel is classified into, said path loss parameters modelling the path loss of a channel; d. the distances separating each regular node from each of its neighboring nodes, and the respective variances thereof are estimated on the basis of the measured strengths of the signals respectively received from its neighboring nodes and the path loss parameters thus allocated to the channels linking it with each of its neighboring nodes, characterized in that: e. the positions of the regular nodes are estimated by minimizing a cost function depending upon weighted quadratic differences between the distances separating each regular node from its neighboring nodes and corresponding distances estimated from step d, the weights being inversely proportional to the respective variances of these distances, as estimated from step d.
A method of cleaving a single stranded target RNA, the method comprising: contacting the single stranded target RNA with: A) a Cas9 polypeptide; B) a guide nucleic acid comprising: (a) a targeting segment comprising a nucleotide sequence that is complementary to a first target nucleotide sequence in the single stranded target RNA, and (b) a protein-binding segment comprising two stretches of nucleotides that hybridize with one another to form a double-stranded RNA duplex that interacts with the Cas9 polypeptide; and C) a PAMmer, wherein the PAMmer is a single stranded DNA oligonucleotide that hybridizes to the single stranded target RNA to generate a double-stranded nucleic acid substrate, the PAMmer comprising: (a) a protospacer adjacent motif sequence, and (b) an orientation segment, positioned 3' of the PAM sequence, comprising a nucleotide sequence that is complementary to a second target nucleotide sequence in the single-stranded target RNA, wherein said contacting is outside of a cell in vitro, or wherein said contacting is in a cell in in vitro or ex vivo. A) a Cas9 polypeptide; B) a guide nucleic acid comprising: (a) a targeting segment comprising a nucleotide sequence that is complementary to a first target nucleotide sequence in the single stranded target RNA, and (b) a protein-binding segment comprising two stretches of nucleotides that hybridize with one another to form a double-stranded RNA duplex that interacts with the Cas9 polypeptide; and (a) a targeting segment comprising a nucleotide sequence that is complementary to a first target nucleotide sequence in the single stranded target RNA, and (b) a protein-binding segment comprising two stretches of nucleotides that hybridize with one another to form a double-stranded RNA duplex that interacts with the Cas9 polypeptide; and C) a PAMmer, wherein the PAMmer is a single stranded DNA oligonucleotide that hybridizes to the single stranded target RNA to generate a double-stranded nucleic acid substrate, the PAMmer comprising: (a) a protospacer adjacent motif sequence, and (b) an orientation segment, positioned 3' of the PAM sequence, comprising a nucleotide sequence that is complementary to a second target nucleotide sequence in the single-stranded target RNA, (a) a protospacer adjacent motif sequence, and (b) an orientation segment, positioned 3' of the PAM sequence, comprising a nucleotide sequence that is complementary to a second target nucleotide sequence in the single-stranded target RNA,
A woven textile for an upper of an article of footwear having an upper and a sole structure, the woven textile comprising: a first portion formed by a first yarn; and a second portion formed by a second yarn; characterized in that the first yarn has durable water repellant properties; the second yarn is different from the first yarn; the second yarn is disposed along an edge portion of the woven textile configured to be attached to the sole structure; and wherein the woven textile including the first portion and the second portion is formed of unitary woven construction. a first portion formed by a first yarn; and a second portion formed by a second yarn; characterized in that the first yarn has durable water repellant properties; the second yarn is different from the first yarn; the second yarn is disposed along an edge portion of the woven textile configured to be attached to the sole structure; and wherein the woven textile including the first portion and the second portion is formed of unitary woven construction.