mhurhangee/ep-ind-claims huggingface dataset:
A sealable container comprising: a base and a continuous side wall extending substantially perpendicular to the base with a peripheral flange formed along the upper, in use, edge of the continuous side wall, wherein the base and the continuous side wall are clear and consist essentially of polyethylene terephthalate, wherein a layer of adhesive is located on an upper, in use, surface of the peripheral flange such that a lidding film may be sealed to the peripheral flange to create a sealed space between the base, continuous side wall and lidding film, wherein said layer of adhesive does not extend onto the vertical, in use, surfaces of the continuous side wall and does not extend onto the base, characterised in that the container further comprises at least one denesting recess, free of adhesive, adjacent a corner of the container, and a denesting area, free of adhesive, which extends partially or completely along the inner periphery of the flange, wherein the distance between the upper surface of the denesting area and the base of the tray is shorter than the distance between the upper surface of the flange and the base, wherein the at least one recess is located in the denesting area. a base and a continuous side wall extending substantially perpendicular to the base with a peripheral flange formed along the upper, in use, edge of the continuous side wall, wherein the base and the continuous side wall are clear and consist essentially of polyethylene terephthalate, wherein a layer of adhesive is located on an upper, in use, surface of the peripheral flange such that a lidding film may be sealed to the peripheral flange to create a sealed space between the base, continuous side wall and lidding film, wherein said layer of adhesive does not extend onto the vertical, in use, surfaces of the continuous side wall and does not extend onto the base, characterised in that the container further comprises at least one denesting recess, free of adhesive, adjacent a corner of the container, and a denesting area, free of adhesive, which extends partially or completely along the inner periphery of the flange, wherein the distance between the upper surface of the denesting area and the base of the tray is shorter than the distance between the upper surface of the flange and the base, wherein the at least one recess is located in the denesting area.
Insect larvae rearing substrate in lumpy form and with a semi-liquid or pasty texture comprising: - solubles derived from plant processing methods, and - plant co-products in solid form. - solubles derived from plant processing methods, and - plant co-products in solid form.
A threaded element, comprising at least two grooves, notches, slots or the like intersecting the thread, the grooves, notches, slots or the like forming in the thread flank at least one gliding surface (Ag) that transitions into the thread flank at an obtuse angle, and wherein the grooves, notches, slots or the like have no more than 25-times the pitch with respect to the thread and have the same rotational direction, characterized in that the grooves, notches, slots or the like form a blocking surface (As) having a blocking edge (Ks) adapted to be embedded in the work piece so as to form a protection against reverse rotation for the thread element, wherein the blocking surface (As) radially intersects the thread flank with a sharp blocking edge (Ks) which hooks into the workpiece so as to form the protection against reverse rotation, and that material displaced by a forming process during manufacturing of the grooves, notches slots and the like is formed to a great extent onto the remaining thread whereby the exterior diameter (Da') of the remaining thread is correspondingly increased with respect to the exterior diameter (Da) of the thread that is not yet provided with grooves, notches slots or the like.
Optical network entity for receiving an optical signal, comprising: a plurality of optical fibre connection modules (310, 320, 330) for converting a plurality of optical signals into electrical signals (308, 318); and a control module, wherein each optical fibre connection module (310, 320, 330) has a predistorter for predistorting the electrical signal (308, 318) in order to compensate for channel crosstalk, wherein each optical fibre connection module (310, 320, 330) is connectable to the optical network entity via electrical contacts, characterized in that the control module is configured, in response to an electrical connection of an optical fibre connection module (310, 320, 330) to the optical network entity, to detect the optical fibre connection module (310, 320, 330) and to communicate predistortion coefficients to the detected optical fibre connection module (310, 320, 330), and wherein the predistorter is configured to predistort the electrical signal (308, 318) by means of the communicated predistortion coefficients. a plurality of optical fibre connection modules (310, 320, 330) for converting a plurality of optical signals into electrical signals (308, 318); and a control module, wherein each optical fibre connection module (310, 320, 330) has a predistorter for predistorting the electrical signal (308, 318) in order to compensate for channel crosstalk, wherein each optical fibre connection module (310, 320, 330) is connectable to the optical network entity via electrical contacts, characterized in that the control module is configured, in response to an electrical connection of an optical fibre connection module (310, 320, 330) to the optical network entity, to detect the optical fibre connection module (310, 320, 330) and to communicate predistortion coefficients to the detected optical fibre connection module (310, 320, 330), and wherein the predistorter is configured to predistort the electrical signal (308, 318) by means of the communicated predistortion coefficients.
A pulse modulator comprising a plurality of solid state power switches, each solid state power switch having a source, a drain, and a gate, wherein the gate is connected to a gate driver and also separately connected to ground, wherein each solid state power switch has an independent gate drive and the gate of each solid state switch is independently connected to ground via an independent Zener diode. a source, a drain, and a gate, wherein the gate is connected to a gate driver and also separately connected to ground, wherein each solid state power switch has an independent gate drive and the gate of each solid state switch is independently connected to ground via an independent Zener diode.
A system for treating a heart of a patient, the system comprising: an introducer having a proximal end and a distal end with a shaft therebetween, the distal end insertable along an insertion path through first and second heart walls bordering a chamber of the heart; a first anchor, the first anchor being axially translatable along the path of the introducer through the heart walls; an elongate member extendable proximally from the first anchor and rotationally coupled to the first anchor so as to axially rotate the first anchor from proximally of the heart walls and to orient an arm of the anchor along a desired lateral orientation from the path; an inner tube advanceable through the introducer to aid in retraction of the first anchor; and a wire that is coupled with the first anchor and that is configured to aid in retraction of the first anchor by reorienting the first anchor to an undeployed configuration relative to the introducer. an introducer having a proximal end and a distal end with a shaft therebetween, the distal end insertable along an insertion path through first and second heart walls bordering a chamber of the heart; a first anchor, the first anchor being axially translatable along the path of the introducer through the heart walls; an elongate member extendable proximally from the first anchor and rotationally coupled to the first anchor so as to axially rotate the first anchor from proximally of the heart walls and to orient an arm of the anchor along a desired lateral orientation from the path; an inner tube advanceable through the introducer to aid in retraction of the first anchor; and a wire that is coupled with the first anchor and that is configured to aid in retraction of the first anchor by reorienting the first anchor to an undeployed configuration relative to the introducer.
A urethane adhesive composition comprising: a urethane prepolymer having an isocyanate group; an isocyanate compound having an isocyanurate structure and an isocyanate group; and an adduct of a compound represented by Formula and a phenol compound, where R 11 and R 12 each independently represent a hydrocarbon group. a urethane prepolymer having an isocyanate group; an isocyanate compound having an isocyanurate structure and an isocyanate group; and an adduct of a compound represented by Formula and a phenol compound, where R 11 and R 12 each independently represent a hydrocarbon group.
A session management method, applied to a Session Management Function, SMF, wherein the method comprises: determining whether an Access Control and Mobility Management Function, AMF receiving a session establishment request sent by the user equipment supports an interworking interface between the AMF and a Mobility Management Entity, MME; and performing mapping between a Quality of Service, QoS, parameter of an Evolved Packet System, EPS, and a QoS parameter of a 5th-Generation, 5G, system when establishing a session connection for the user equipment, in response to that the AMF supports the interworking interface; characterized in that, the determining whether the AMF receiving the session establishment request sent by the user equipment supports the interworking interface comprises: receiving an indicator from an AMF serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the AMF; or when the SMF is a Home SMF, receiving an indicator from a Visited SMF in a visited network serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the Visited SMF. determining whether an Access Control and Mobility Management Function, AMF receiving a session establishment request sent by the user equipment supports an interworking interface between the AMF and a Mobility Management Entity, MME; and performing mapping between a Quality of Service, QoS, parameter of an Evolved Packet System, EPS, and a QoS parameter of a 5th-Generation, 5G, system when establishing a session connection for the user equipment, in response to that the AMF supports the interworking interface; receiving an indicator from an AMF serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the AMF; or when the SMF is a Home SMF, receiving an indicator from a Visited SMF in a visited network serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the Visited SMF.
A polynucleotide sequencing method comprising: (a) introducing a first chain extending enzyme and a mixture of blocked, labeled nucleotides to a flow cell comprising a site at which multiple template polynucleotide strands having the same nucleotide sequence are bound to a surface of the flow cell, wherein the first chain extending enzyme is configured to incorporate an appropriate one of the blocked, labeled nucleotides into copy polynucleotide strands, based on the sequence of the template strands to which the copy polynucleotide strands correspond; (b) washing unincorporated blocked, labeled nucleotides away from the flow cell; (c) introducing a composition comprising a mixture of blocked, unlabeled nucleotides to the flow cell during or after the washing away of the unincorporated blocked, labeled nucleotides from the flow cell, wherein a blocked, unlabeled nucleotide of the mixture of the blocked, unlabeled nucleotides is available for incorporation into the copy polynucleotide strands, based on a sequence of the template strands to which the copy polynucleotide strands correspond, provided that the previously incorporated nucleotide in the copy strand, if any, is not blocked; and (d) detecting the identity of the one blocked, labeled nucleotide incorporated into the copy strands, if any, while the mixture of blocked, unlabeled nucleotides is incubated with the flow cell. (a) introducing a first chain extending enzyme and a mixture of blocked, labeled nucleotides to a flow cell comprising a site at which multiple template polynucleotide strands having the same nucleotide sequence are bound to a surface of the flow cell, wherein the first chain extending enzyme is configured to incorporate an appropriate one of the blocked, labeled nucleotides into copy polynucleotide strands, based on the sequence of the template strands to which the copy polynucleotide strands correspond; (b) washing unincorporated blocked, labeled nucleotides away from the flow cell; (c) introducing a composition comprising a mixture of blocked, unlabeled nucleotides to the flow cell during or after the washing away of the unincorporated blocked, labeled nucleotides from the flow cell, wherein a blocked, unlabeled nucleotide of the mixture of the blocked, unlabeled nucleotides is available for incorporation into the copy polynucleotide strands, based on a sequence of the template strands to which the copy polynucleotide strands correspond, provided that the previously incorporated nucleotide in the copy strand, if any, is not blocked; and (d) detecting the identity of the one blocked, labeled nucleotide incorporated into the copy strands, if any, while the mixture of blocked, unlabeled nucleotides is incubated with the flow cell.
A method for positioning of a target station by a radio network device, the method comprising: receiving sounding feedback, from a target station for each of a plurality of subbands in response to sending a sounding signal, the sounding feedback comprising angle-of-arrival, AoA, measurements for each subband of the plurality of subbands; calculating an AoA characteristic from the sounding feedback for at least a subset of the plurality of subbands; mapping the AoA characteristics of the at least the subset of the plurality of subbands to a fingerprint in a fingerprint reference map; and determining the location of the target station based on at least the fingerprint. receiving sounding feedback, from a target station for each of a plurality of subbands in response to sending a sounding signal, the sounding feedback comprising angle-of-arrival, AoA, measurements for each subband of the plurality of subbands; calculating an AoA characteristic from the sounding feedback for at least a subset of the plurality of subbands; mapping the AoA characteristics of the at least the subset of the plurality of subbands to a fingerprint in a fingerprint reference map; and determining the location of the target station based on at least the fingerprint.
A method carried out by a radio base station for transmitting a downlink demodulation reference signal pattern in a resource block to a user equipment using more than two transmission layers over a plurality of transmit antennas, which radio base station and user equipment are comprised in a radio communications network, the method comprising: - mapping a plurality of codewords to the more than two transmission layers; - mapping each of the more than two transmission layers to a respective demodulation reference signal port according to a fixed pattern based on a transmission rank, wherein for each of the demodulation reference signal ports a demodulation reference signal pattern is added to a resource block, which each demodulation reference signal port is associated with only one of two different code division multiplexing groups according to an association pattern, wherein demodulation reference signals associated with each code division multiplexing group are code division multiplexed and demodulation reference signals associated with different code division multiplexing groups are frequency division multiplexed, - precoding transmission layers including the demodulation reference signal pattern; and - transmitting the precoded transmission layers including the demodulation reference signal pattern in the resource block to the user equipment, wherein the fixed pattern defines that transmission layers of the transmission rank mapped to a certain codeword are mapped to demodulation reference signal ports within one and the same code division multiplexing group. - mapping a plurality of codewords to the more than two transmission layers; - mapping each of the more than two transmission layers to a respective demodulation reference signal port according to a fixed pattern based on a transmission rank, wherein for each of the demodulation reference signal ports a demodulation reference signal pattern is added to a resource block, which each demodulation reference signal port is associated with only one of two different code division multiplexing groups according to an association pattern, wherein demodulation reference signals associated with each code division multiplexing group are code division multiplexed and demodulation reference signals associated with different code division multiplexing groups are frequency division multiplexed, - precoding transmission layers including the demodulation reference signal pattern; and - transmitting the precoded transmission layers including the demodulation reference signal pattern in the resource block to the user equipment,
A method of position location in a wireless receiver, the method comprising: receiving a pseudo noise code spread signal from each of at least two satellite vehicles (130-1,..., 130-n); determining a bit transition edge timing for each pseudo noise code spread signal; determining a time reference for at least one of the pseudo noise code spread signals; and determining a position location solution for the wireless device based on the time reference and bit transition edge timing for the pseudo noise code spread signal from each of the at least two satellite vehicles (130-1,..., 130-n), wherein determining the position location solution comprises: determining a known time associated with a bit edge related to the time reference; the method being characterised by configuring a time window encompassing a bit transition of the pseudo noise code spread signal from each of the at least two satellite vehicles (130-1,..., 130-n); generating a time hypothesis for at least one bit transition within the window for the signal from at least one satellite vehicles (130-1,..., 130-n) for which a time reference is unknown; and determining the position location solution based on the known time and the time hypothesis. receiving a pseudo noise code spread signal from each of at least two satellite vehicles (130-1,..., 130-n); determining a bit transition edge timing for each pseudo noise code spread signal; determining a time reference for at least one of the pseudo noise code spread signals; and determining a position location solution for the wireless device based on the time reference and bit transition edge timing for the pseudo noise code spread signal from each of the at least two satellite vehicles (130-1,..., 130-n), wherein determining the position location solution comprises: determining a known time associated with a bit edge related to the time reference; the method being characterised by configuring a time window encompassing a bit transition of the pseudo noise code spread signal from each of the at least two satellite vehicles (130-1,..., 130-n); generating a time hypothesis for at least one bit transition within the window for the signal from at least one satellite vehicles (130-1,..., 130-n) for which a time reference is unknown; and determining the position location solution based on the known time and the time hypothesis. determining a known time associated with a bit edge related to the time reference; the method being characterised by configuring a time window encompassing a bit transition of the pseudo noise code spread signal from each of the at least two satellite vehicles (130-1,..., 130-n); generating a time hypothesis for at least one bit transition within the window for the signal from at least one satellite vehicles (130-1,..., 130-n) for which a time reference is unknown; and determining the position location solution based on the known time and the time hypothesis.
Hinge device comprising a first member and a second member mutually swiveling connected by means of a hinge pivot pin, one of such first and second members is assigned to be fixed to a structure or frame of an appliance and the other to be fixed to a door or shutter for rotation of the latter between closed and totally open conditions of the appliance; the first member comprises a box-like body whose opposite proximal and distal ends (4, 6) have respectively a seat for the hinge pivot pin and a connection or matching member for a resilient element connected to a distal end of a transmission member at least partially contained in the box-like body and mobile with respect to the latter to transmit to said transmission member the elastic force of the resilient element acting in a respective operative direction and in the opposite direction to the hinge pivot pin, or to the second member a portion of which, placed at a predetermined distance from a hinge pivot pin is connected to the proximal end, opposite the resilient element, of said transmission member; said box-like body is equipped with at least one elongated guide whose geometric axis is parallel to the operative direction and along which at least one constraint element fixed to said distal end of the transmission member slides; one between the transmission member and the box-like body is equipped with a first elongated slot and the other (9, 15) is equipped with a first mobile element slidingly engaged in the first elongated slot; one between said portion of the second member and proximal end of the transmission member carries a second slot and the other (16, 8) carries a second mobile element slidingly engaged in the second slot, at least the shape of the first elongated slot contributes to determining the distance from the hinge pivot pin of the point of application of the elastic force and/or the direction of the elastic force transmitted to the second member and as a function of the angle formed between the first and second members in the opening and closing phases of said door or shutter; said device is characterized in that the resilient element comprises an elongated tie-rod element having a proximal end rotatably connected to said distal end of the transmission member by means of the constraint element to transmit to the transmission member the elastic force of the resilient element and in that the transmission member consists of three shaped elements at least partially flat, each having a through opening corresponding to the first elongated slot, the distal and proximal ends of two of them, fixed laterally to the remaining place centrally between them, have seats respectively for the constraint element and for the second mobile element, the central element being shorter than the side ones making distal and proximal seats respectively for the proximal end of a tie-rod element and for the portion of the second member; the first and second mobile elements each comprise a pin or a pin and a respective rotating bush.
A liquid composition comprising (i) dl-α-tocopherol acetate, and (ii) at least 40 wt-%, based on the total weight of the liquid composition, of at least one polyoxyethylene sorbitan monofatty acid ester, and wherein said liquid composition having an IU of at least 0.30/mg (based on the total weight of the liquid composition). (i) dl-α-tocopherol acetate, and (ii) at least 40 wt-%, based on the total weight of the liquid composition, of at least one polyoxyethylene sorbitan monofatty acid ester,