mhurhangee/ep-ind-claims huggingface dataset:
A spacer textile material (500,600,700,800,900,1000,1100,1200,1300,1510) comprising: a first layer (310,610,710,810,910,1010,1110,1210,1310); a second layer (320,620,720,820,920,1020,1120,1220,1320); a plurality of connecting members (330,630,730,830,930,1030,1130,1230, 1330) extending between and joining the first layer (310,610,710,810,910,1010, 1110,1210,1310) and the second layer (320,620,720,820,920,1020,1120,1220, 1320); a tensile strand (340,640,740,840,940,1040,1140,1240,1340,1540), wherein a first portion (642,745,846,941,1043,1143,1243,1401,1542) of the tensile strand (340, 640,740,840, 940,1040,1140,1240,1340,1540) is disposed between the first layer (310, 610,710,810,910,1010,1110,1210,1310) and second layer (320,620,720, 820, 920,1020,1120,1220,1320); and wherein the first portion (642,745,846,941,1043,1143,1243,1401,1542) of the tensile strand (340,640,740,840,940,1040, 1140,1240,1340,1540) that is disposed between the first layer (310,610,710,810, 910,1010,1110,1210,1310) and second layer (320,620,720, 820,920,1020,1120, 1220,1320) is located within the channel (360,681, 771,847,980,1080, 1180,1281,1420,1530), characterized by: a channel (360,681,771,847,980,1080,1180,1281,1420,1530) bounded by portions of the first layer (310,610,710,810,910,1010,1110,1210,1310) and the second layer (320,620,720,820,920,1020,1120,1220,1320) that are in direct contact. a first layer (310,610,710,810,910,1010,1110,1210,1310); a second layer (320,620,720,820,920,1020,1120,1220,1320); a plurality of connecting members (330,630,730,830,930,1030,1130,1230, 1330) extending between and joining the first layer (310,610,710,810,910,1010, 1110,1210,1310) and the second layer (320,620,720,820,920,1020,1120,1220, 1320); a tensile strand (340,640,740,840,940,1040,1140,1240,1340,1540), wherein a first portion (642,745,846,941,1043,1143,1243,1401,1542) of the tensile strand (340, 640,740,840, 940,1040,1140,1240,1340,1540) is disposed between the first layer (310, 610,710,810,910,1010,1110,1210,1310) and second layer (320,620,720, 820, 920,1020,1120,1220,1320); and wherein the first portion (642,745,846,941,1043,1143,1243,1401,1542) of the tensile strand (340,640,740,840,940,1040, 1140,1240,1340,1540) that is disposed between the first layer (310,610,710,810, 910,1010,1110,1210,1310) and second layer (320,620,720, 820,920,1020,1120, 1220,1320) is located within the channel (360,681, 771,847,980,1080, 1180,1281,1420,1530), characterized by: a channel (360,681,771,847,980,1080,1180,1281,1420,1530) bounded by portions of the first layer (310,610,710,810,910,1010,1110,1210,1310) and the second layer (320,620,720,820,920,1020,1120,1220,1320) that are in direct contact. a channel (360,681,771,847,980,1080,1180,1281,1420,1530) bounded by portions of the first layer (310,610,710,810,910,1010,1110,1210,1310) and the second layer (320,620,720,820,920,1020,1120,1220,1320) that are in direct contact.
A method of producing sponge iron by means of a direct reduction method according to which reduction gas is introduced into a DRI reduction apparatus and the direct reduction method is carried out in the same wherein coke oven gas and/or natural gas is reformed in a COG reformer to the reduction gas by the addition of water vapor-containing and carbon dioxide-containing gas, which is top gas from a DRI reduction apparatus, and by oxygen and wherein the coke oven gas and/or the natural gas is mixed with the top gas of the DRI reduction apparatus and the obtained gas mixture and oxygen are introduced into the lower part of the COG reformer and a part-amount of the oxygen is introduced into the middle portion of the COG reformer
A one piece, inflatable foot cushion for minimizing forces on a heel of a foot of a person when the person's body is in a supine position, said foot cushion comprising: a proximal end, a distal end, a posterior side, and an anterior side; an inflatable central chamber; a first downward-sloping inflatable side chamber, said first inflatable side chamber being disposed adjacently to and fluidically connected with said central chamber; a second downwardly sloped inflatable side chamber, said second inflatable side chamber being disposed adjacently to and fluidically connected with said central chamber; wherein said first and second side chambers (16, 17) slope downwardly from said proximal end of said cushion to said distal end of said cushion; a fluid valve, said fluid valve being attached to an air chamber; characterized in that the foot cushion further comprises a plurality of flexible inflatable straps (3, 4, 5), said straps being fluidically connected to said first side chamber and selectively connectable to said second side chamber; a selectively closable foot chamber disposed at said distal end of said cushion; and an independent air chamber, said independent air chamber being selectively attachable to said posterior side of said foot cushion, said independent chamber being not fluidically connected to said central chamber of said cushion.
A valve insert for arrangement in an opening of a container, wherein the valve insert has a rotationally symmetric plug body with at least two axial bores for providing flow paths into and out of the container, wherein each flow path can be opened and closed by means of an actuatable spring-loaded valve, characterised in that - a first one of the axial bores is non-centrically arranged and, between an upper bore section and a lower bore section aligned therewith, has a diameter-reduced section and a shoulder limiting the lower bore section, wherein a diameter-increased receiving bore adjoins the upper bore section, said diameter-increased receiving bore extending to a front side of the plug body, - wherein the plug body has a first radial bore opening into the receiving bore and a second radial bore axially spaced apart therefrom and opening into the upper bore section, and - wherein the valve insert has a cooperating valve combination consisting of a first valve with a first valve seat that is present in the upper bore section between the receiving bore and the mouth of the second radial bore, and a second valve with a second valve seat that is formed by the shoulder towards the diameter-reduced section, wherein two flow paths (a, b) can be closed commonly or alternately by means of the cooperating valve combination, wherein - a first flow path (a) extends from the first radial bore, through the receiving bore, across the upper bore section and into the second radial bore, and - a second flow path (b) extends from the lower bore section, through the diameter-reduced section, across the upper bore section and into the second radial bore. - a first one of the axial bores is non-centrically arranged and, between an upper bore section and a lower bore section aligned therewith, has a diameter-reduced section and a shoulder limiting the lower bore section, wherein a diameter-increased receiving bore adjoins the upper bore section, said diameter-increased receiving bore extending to a front side of the plug body, - wherein the plug body has a first radial bore opening into the receiving bore and a second radial bore axially spaced apart therefrom and opening into the upper bore section, and - wherein the valve insert has a cooperating valve combination consisting of a first valve with a first valve seat that is present in the upper bore section between the receiving bore and the mouth of the second radial bore, and a second valve with a second valve seat that is formed by the shoulder towards the diameter-reduced section, wherein two flow paths (a, b) can be closed commonly or alternately by means of the cooperating valve combination, wherein - a first flow path (a) extends from the first radial bore, through the receiving bore, across the upper bore section and into the second radial bore, and - a second flow path (b) extends from the lower bore section, through the diameter-reduced section, across the upper bore section and into the second radial bore.
A packet data transmitting method for packet service domain, characterized by comprising: a Packet Data Convergence Protocol (PDCP) entity determining whether a Serial Number window is full after receiving a Service Data Unit; when the Serial Number window is full: the PDCP entity adding the SDU in a cache queue; the PDCP entity deleting a Protocol Data Unit record from the SN window, wherein the deleted PDU record has a weight value exceeding a threshold value, when the cache queue is full; and the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to a Radio Link Control layer entity, and adding a PDU record of the transmitted PDU into the SN window, wherein each PDU record in the SN window has a respective weight value for indicating a length of time of the PDU record in the SN window; and when the SN window is not full and there is at least one SDU is in the cache queue: the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to the RLC layer entity, and adding a PDU record of the transmitted PDU into the SN window. a Packet Data Convergence Protocol (PDCP) entity determining whether a Serial Number window is full after receiving a Service Data Unit; when the Serial Number window is full: the PDCP entity adding the SDU in a cache queue; the PDCP entity deleting a Protocol Data Unit record from the SN window, wherein the deleted PDU record has a weight value exceeding a threshold value, when the cache queue is full; and the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to a Radio Link Control layer entity, and adding a PDU record of the transmitted PDU into the SN window, wherein each PDU record in the SN window has a respective weight value for indicating a length of time of the PDU record in the SN window; and the PDCP entity adding the SDU in a cache queue; the PDCP entity deleting a Protocol Data Unit record from the SN window, wherein the deleted PDU record has a weight value exceeding a threshold value, when the cache queue is full; and the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to a Radio Link Control layer entity, and adding a PDU record of the transmitted PDU into the SN window, wherein each PDU record in the SN window has a respective weight value for indicating a length of time of the PDU record in the SN window; and when the SN window is not full and there is at least one SDU is in the cache queue: the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to the RLC layer entity, and adding a PDU record of the transmitted PDU into the SN window. the PDCP entity processing a first SDU in the cache queue into a PDU, transmitting the PDU to the RLC layer entity, and adding a PDU record of the transmitted PDU into the SN window.
A user terminal comprising a reception section configured to receive downlink control information for scheduling a transmission in an uplink shared channel, the uplink shared channel being scheduled using one of a first resource allocation scheme and a second resource allocation scheme depending on conditions, the first resource allocation scheme being a scheme in which resource blocks are allocated to the uplink shared channel, indicated by a bitmap, and the second resource allocation scheme being a scheme in which continuous resource blocks are allocated to the uplink shared channel, indicated by a starting resource block value and a number of allocated resource blocks; a control section configured to apply or not apply discrete Fourier transform precoding to the uplink shared channel based on a downlink control information format of the downlink control information; and a transmission section configured to transmit the uplink shared channel, characterized by: when the discrete Fourier transform precoding is applied to the uplink shared channel, the uplink shared channel is scheduled using the second resource allocation scheme and the control section uses a CAZAC sequence in generation of a demodulation reference signal, and when the discrete Fourier transform precoding is not applied to the uplink shared channel, the control section uses a Phase Shift Keying signal that is not a CAZAC sequence in generation of the demodulation reference signal. a reception section configured to receive downlink control information for scheduling a transmission in an uplink shared channel, the uplink shared channel being scheduled using one of a first resource allocation scheme and a second resource allocation scheme depending on conditions, the first resource allocation scheme being a scheme in which resource blocks are allocated to the uplink shared channel, indicated by a bitmap, and the second resource allocation scheme being a scheme in which continuous resource blocks are allocated to the uplink shared channel, indicated by a starting resource block value and a number of allocated resource blocks; a control section configured to apply or not apply discrete Fourier transform precoding to the uplink shared channel based on a downlink control information format of the downlink control information; and a transmission section configured to transmit the uplink shared channel, characterized by: when the discrete Fourier transform precoding is applied to the uplink shared channel, the uplink shared channel is scheduled using the second resource allocation scheme and the control section uses a CAZAC sequence in generation of a demodulation reference signal, and when the discrete Fourier transform precoding is not applied to the uplink shared channel, the control section uses a Phase Shift Keying signal that is not a CAZAC sequence in generation of the demodulation reference signal.
A separating device for food products, comprising a separating element (11, 15, 21, 31, 51, 61) provided with a cutting edge (7, 17, 27, 37, 67), wherein said separating device comprises drive means (3, 13) for oscillating the outer sheets (2, 12, 22, 22a, 22b, 32a, 32b, 52a, 52b, 62a, 62b) along the cutting edge (7, 17, 27, 37, 67) at a frequency in the 150 - 10,000 Hz range, characterised in that said separating element comprises two outer sheets (2, 12, 22, 22a, 22b, 32a, 32b, 52a, 52b, 62a, 62b) which are attached together at an acute angle relative to each other along at least part of their circumferential edges, whilst a spacer (28, 68) is provided between at least part of said outer sheets (2, 12, 22, 22a, 22b, 32a, 32b, 52a, 52b, 62a, 62b), which spacer (28, 38, 68) fills the space between the two outer sheets (2, 12, 22, 22a, 22b, 32a, 32b, 52a, 52b, 62a, 62b) only partially, wherein at least one of said two outer sheets (2, 12, 52a, 52b, 62a, 62b) or said spacer (28, 38) form said cutting edge (7, 17, 27, 37, 67).
A mixing apparatus configured to mix a first audio signal representing a first sound and a second audio signal representing a second sound to enable a listener to listen to the first sound in a more prioritized manner than the second sound, comprising: a weighting circuit configured to perform weighting, within a particular control target band, an amplitude spectrum of at least one of the first audio signal and the second audio signal taking at least one of frequency masking and time masking into account; a calculator configured to calculate a particular control value based on an amplitude ratio, within the control target band, of the first audio signal and the second audio signal to which the weighting have been applied; an amplitude changer (20A, 20B) configured to perform an amplitude spectrum changing process of relatively amplifying an amplitude spectrum of the first audio signal within the control target band by changing the amplitude spectrum of the at least one of the first audio signal and the second audio signal based on the particular control value; a phase changer (20A, 20B) configured to perform a phase spectrum changing process of making a phase spectrum of the second audio signal approach a phase spectrum of the first audio signal, within the control target band, by changing a phase spectrum of at least one of the first audio signal and the second audio signal based on the particular control value; and a mixer (24A, 24B, 26) configured to mix the first audio signal and the second audio signal on which have been performed the amplitude spectrum changing process and the phase spectrum changing process. a weighting circuit configured to perform weighting, within a particular control target band, an amplitude spectrum of at least one of the first audio signal and the second audio signal taking at least one of frequency masking and time masking into account; a calculator configured to calculate a particular control value based on an amplitude ratio, within the control target band, of the first audio signal and the second audio signal to which the weighting have been applied; an amplitude changer (20A, 20B) configured to perform an amplitude spectrum changing process of relatively amplifying an amplitude spectrum of the first audio signal within the control target band by changing the amplitude spectrum of the at least one of the first audio signal and the second audio signal based on the particular control value; a phase changer (20A, 20B) configured to perform a phase spectrum changing process of making a phase spectrum of the second audio signal approach a phase spectrum of the first audio signal, within the control target band, by changing a phase spectrum of at least one of the first audio signal and the second audio signal based on the particular control value; and a mixer (24A, 24B, 26) configured to mix the first audio signal and the second audio signal on which have been performed the amplitude spectrum changing process and the phase spectrum changing process.
An apparatus, comprising: an expandable implant configured to be deployed in a sac of an aneurysm, the expandable implant having a first portion and a second portion coupled to the first portion, the expandable implant configured to move between a collapsed configuration in which the first portion and the second portion are substantially linearly aligned along an axis and an expanded configuration in which the second portion at least partially overlaps the first portion, said apparatus being characterized in that the first portion and the second portion are each formed of a flattened, two-layer ribbon-shaped strand formed of a tubular mesh, and wherein, in the expanded configuration, the expandable implant has a three-dimensional shape with a continuous outer surface such that edges of the first and second portions overlap. an expandable implant configured to be deployed in a sac of an aneurysm, the expandable implant having a first portion and a second portion coupled to the first portion, the expandable implant configured to move between a collapsed configuration in which the first portion and the second portion are substantially linearly aligned along an axis and an expanded configuration in which the second portion at least partially overlaps the first portion, said apparatus being characterized in that the first portion and the second portion are each formed of a flattened, two-layer ribbon-shaped strand formed of a tubular mesh, and wherein, in the expanded configuration, the expandable implant has a three-dimensional shape with a continuous outer surface such that edges of the first and second portions overlap.
A method for controlling a variable-geometry nozzle intended to equip a nacelle for a turbojet engine, a nacelle of the type including: - a variable-geometry nozzle including a downstream section terminated by a plurality of flaps which are movably mounted so as to vary the ejection section of the nozzle, - actuating means of the flaps of the nozzle, - control means of the flaps of the nozzle in a desired position, and - detection means of the state of the flaps of the nozzle allowing determining at least one blocked state or an operating state for each flap, characterized in that the method is provided to control the nozzle in a normal mode when the flaps are detected in an operating state, or in a degraded mode when at least one flap is detected in a blocked state by said detection means, a degraded mode in which the method consists in controlling the opening of one or several flap(s) in the operating state beyond the nominal opening thereof, in order to compensate said at least one blocked flap in order to ensure an opening of the nozzle corresponding to the initial opening control. - a variable-geometry nozzle including a downstream section terminated by a plurality of flaps which are movably mounted so as to vary the ejection section of the nozzle, - actuating means of the flaps of the nozzle, - control means of the flaps of the nozzle in a desired position, and - detection means of the state of the flaps of the nozzle allowing determining at least one blocked state or an operating state for each flap,
Axial-flow machine having a dimensionally stable assembly, having a machine shaft, having a rotor fastened on the machine shaft and provided with a rotor hub, permanent magnets (7.1, 7.2) disposed circularly around the machine shaft, an adhesive and a bracing means, which is disposed on the outer circumference (2.1) of the rotor and encircles it in shot manner and which urges the permanent magnets (7.1, 7.2) with a radially inwardly directed tension force (Fr), and having stators (4, 5) disposed on both sides of the rotor, wherein the permanent magnets (7.1, 7.2) are seated on the rotor hub via first adhesive joints (10.1) equipped with the adhesive and adjoin one another via second adhesive joints (10.2) equipped with adhesive, wherein the permanent magnets (7.1, 7.2), the rotor hub, the bracing means and the adhesive form the dimensionally stable assembly, characterized in that the radial and axial dimensional stability of the stable assembly is determined substantially by the radial tension force (Fr) of the bracing means on the permanent magnets (7.1, 7.2).
Fuel withdrawing system from a reservoir of compressed natural gas including a non-condensable gaseous fraction, substantially pure methane, and a condensed fraction, substantially liquid propane and ethylene, to supply an internal combustion engine, the system comprising - means for measuring the condensed fraction in said reservoir and/or means for estimating the presence of the condensed fraction, by detection of a refuelling procedure of the reservoir, and for continuously estimating a relative presence on the basis of an effective withdrawal of said gaseous fraction and/or condensed fraction - means ((HO, GP, PR), (LO, LP, VP)) for selectively withdrawing said gaseous fraction, and said condensed fraction, - processing unit adapted to control said selective withdrawal so as to supply said condensed fraction, simultaneously with said gaseous fraction, to said internal combustion engine according to a predefined desired value of the octane number of the overall fuel mixture, taking into account that said condensed fraction and said gaseous fraction have different octane numbers. - means for measuring the condensed fraction in said reservoir and/or means for estimating the presence of the condensed fraction, by detection of a refuelling procedure of the reservoir, and for continuously estimating a relative presence on the basis of an effective withdrawal of said gaseous fraction and/or condensed fraction - means ((HO, GP, PR), (LO, LP, VP)) for selectively withdrawing said gaseous fraction, and said condensed fraction, - processing unit adapted to control said selective withdrawal so as to supply said condensed fraction, simultaneously with said gaseous fraction, to said internal combustion engine according to a predefined desired value of the octane number of the overall fuel mixture, taking into account that said condensed fraction and said gaseous fraction have different octane numbers.