mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: determining, based on an identifier of a terminal device, that the terminal device belongs to a first terminal device group on a first paging occasion, PO, wherein the first terminal device group is one of X terminal device groups on the first PO, wherein X is an integer greater than 1; sending paging downlink control information DCI on the first PO, wherein the paging DCI comprises first indication information, and the first indication information is used to indicate a terminal device in the first terminal device group to receive a paging physical downlink shared channel PDSCH; and sending the paging PDSCH to the terminal device; characterised in that: the identifier is a user equipment identifier UE_ID, and the UE_ID and the first terminal device group meet: x=floor(UE_ID/N/Ns) mod X, wherein x is a number of the first terminal device group, x is an integer from 0 to X-1, floor indicates rounding down, N is a quantity of paging frames PFs comprised in a discontinuous reception DRX cycle, Ns is a quantity of POs comprised in the PF, and mod indicates modulo; and the UE_ID and a 5G-S-TMSI of the terminal device meet UE_ID=5G-S-TMSI mod (b×1024), and X meets X×N×Ns≤1024×b, wherein b is a positive integer power of 2. determining, based on an identifier of a terminal device, that the terminal device belongs to a first terminal device group on a first paging occasion, PO, wherein the first terminal device group is one of X terminal device groups on the first PO, wherein X is an integer greater than 1; sending paging downlink control information DCI on the first PO, wherein the paging DCI comprises first indication information, and the first indication information is used to indicate a terminal device in the first terminal device group to receive a paging physical downlink shared channel PDSCH; and sending the paging PDSCH to the terminal device; characterised in that: the identifier is a user equipment identifier UE_ID, and the UE_ID and the first terminal device group meet: x=floor(UE_ID/N/Ns) mod X, wherein x is a number of the first terminal device group, x is an integer from 0 to X-1, floor indicates rounding down, N is a quantity of paging frames PFs comprised in a discontinuous reception DRX cycle, Ns is a quantity of POs comprised in the PF, and mod indicates modulo; and the UE_ID and a 5G-S-TMSI of the terminal device meet UE_ID=5G-S-TMSI mod (b×1024), and X meets X×N×Ns≤1024×b, wherein b is a positive integer power of 2. x=floor(UE_ID/N/Ns) mod X, wherein x is a number of the first terminal device group, x is an integer from 0 to X-1, floor indicates rounding down, N is a quantity of paging frames PFs comprised in a discontinuous reception DRX cycle, Ns is a quantity of POs comprised in the PF, and mod indicates modulo; and the UE_ID and a 5G-S-TMSI of the terminal device meet UE_ID=5G-S-TMSI mod (b×1024), and X meets X×N×Ns≤1024×b, wherein b is a positive integer power of 2.
A composition comprising: (a) tetrakis(hydroxymethyl)phosphonium sulfate (THPS); (b) water; and (c) methanol; wherein the weight percentages of (a), (b) and (c) are within an area on a ternary phase diagram bounded by four points: 5% THPS/58% water/37% methanol; 5% THPS/36% water/59% methanol; 65% THPS/27% water/8% methanol; and 65% THPS/29% water/6% methanol, or comprising (a), (b), (c) and no more than 5 wt% of ingredients other than (a), (b) or (c), wherein for any such composition comprising ingredients other than (a), (b) and (c), when the weight percentages of THPS, water and methanol are normalized to 100%, the normalized weight percentages of (a), (b) and (c) are within the area on a ternary phase diagram bounded by the four points as hereinbefore defined. (a) tetrakis(hydroxymethyl)phosphonium sulfate (THPS); (b) water; and (c) methanol; wherein the weight percentages of (a), (b) and (c) are within an area on a ternary phase diagram bounded by four points: 5% THPS/58% water/37% methanol; 5% THPS/36% water/59% methanol; 65% THPS/27% water/8% methanol; and 65% THPS/29% water/6% methanol,
A process for producing a shaped article, the process comprising:- obtaining a freshly produced aluminosilicate-containing particulate waste material and, before said waste material cools to ambient temperature, mixing said waste material into a mixture, wherein the mixture comprises said aluminosilicate-containing particulate waste material, a metal oxide, an alkali, a water soluble silicate, and water; shaping the mixture; and curing the shaped mixture whereby the shaped article is produced. obtaining a freshly produced aluminosilicate-containing particulate waste material and, before said waste material cools to ambient temperature, mixing said waste material into a mixture, wherein the mixture comprises said aluminosilicate-containing particulate waste material, a metal oxide, an alkali, a water soluble silicate, and water; shaping the mixture; and curing the shaped mixture whereby the shaped article is produced.
Device for monitoring the isolation of an installation of a plurality of interconnectable networks each comprising means for generating and distributing an electric signal and a load, said installation comprising a first end network (12 1) connected to a last end network (12 n) and optionally one or more intermediate networks (12 i) between the two end networks (12 1, 12 n), two successive networks (12 i, 12 i+1) being connected by means of a coupling breaking device (22 i) able to adopt a closed position for coupling and an open position for isolating the two networks (12 i, 12 i+1), said monitoring device comprising a series of isolation monitors (16 i), each isolation monitor being associated with a network and comprising means for injecting an alternating current signal into the latter at the means for generating and distributing the electric signal, characterized in that each isolation monitor (16 i) comprises an exclusions management device (30 i) that comprises: - means (32 i) for receiving information relating to the position of the coupling breaking device (22 i-1) preceding it; - means (34 i) for receiving, from the preceding exclusions management device (30 i-1), information relating to the injection of an isolation monitor (16 1→i-1) into the preceding network (12 i-1); - means (28 i) for activating the injection means (18 i) of said isolation monitor (16 i) as a function of the information received; - means (36 i) for sending, to the following exclusions management device (30 i+1), information relating to the injection of an isolation monitor into its network (12 i). - means (32 i) for receiving information relating to the position of the coupling breaking device (22 i-1) preceding it; - means (34 i) for receiving, from the preceding exclusions management device (30 i-1), information relating to the injection of an isolation monitor (16 1→i-1) into the preceding network (12 i-1); - means (28 i) for activating the injection means (18 i) of said isolation monitor (16 i) as a function of the information received; - means (36 i) for sending, to the following exclusions management device (30 i+1), information relating to the injection of an isolation monitor into its network (12 i).
Apparatus for the mobile determination of at least one physiological stress threshold value of an athlete, comprising: a. a sensor for determining respired air volume at each point in time of a plurality of points in time; b. a processing unit, which is configured to: Compute a sum value for each point in time of the plurality of points in time at least based on the respired air volume of a present point in time and a sum value of a previous point in time, wherein in each sum a weight value is subtracted from the respective determined sum value, wherein the weight value is based on an average value formed over the plurality of points in time, and wherein the average value is based on the respired air volumes; Multiply the determined air volumes with times associated with the respective points in time; Set the sum value to an initial value, if the previous point in time is not within the plurality of points in time; Determine the physiological stress threshold value based on the computed sum values. a. a sensor for determining respired air volume at each point in time of a plurality of points in time; b. a processing unit, which is configured to: Compute a sum value for each point in time of the plurality of points in time at least based on the respired air volume of a present point in time and a sum value of a previous point in time, wherein in each sum a weight value is subtracted from the respective determined sum value, wherein the weight value is based on an average value formed over the plurality of points in time, and wherein the average value is based on the respired air volumes; Multiply the determined air volumes with times associated with the respective points in time; Set the sum value to an initial value, if the previous point in time is not within the plurality of points in time; Determine the physiological stress threshold value based on the computed sum values. Compute a sum value for each point in time of the plurality of points in time at least based on the respired air volume of a present point in time and a sum value of a previous point in time, wherein in each sum a weight value is subtracted from the respective determined sum value, wherein the weight value is based on an average value formed over the plurality of points in time, and wherein the average value is based on the respired air volumes; Multiply the determined air volumes with times associated with the respective points in time; Set the sum value to an initial value, if the previous point in time is not within the plurality of points in time; Determine the physiological stress threshold value based on the computed sum values.
Agglomerated zeolitic adsorbent, based on crystals of zeolite X and on at least one non-zeolitic phase, in which adsorbent: - the crystals of zeolite X exhibit: i. a number-average diameter of less than or equal to 1.7 μm, preferably of less than or equal to 1.5 μm and more preferably of less than or equal to 1.2 μm, ii. an Si/AI atomic ratio of between 1.00 and 1.50, preferably between 1.05 and 1.50 and more preferably between 1.10 and 1.50, limits included, - the content by weight of non-zeolitic phase is such that 2.0% < NZP < 5.0%, preferably such that 3.0% < NZP < 5.0%, more preferably such that 3.0% < NZP < 4.0%, advantageously such that 3.2% < NZP < 3.7%, by weight of the total mass of the adsorbent, - the content by weight of barium oxide (BaO) is greater than 23%, preferably greater than 32% and more preferably greater than 33% by weight, with respect to the total mass of the adsorbent, - the content by weight of potassium oxide K 2 O is less than 9%, preferably less than 8% and more preferably between 0% and 2% and advantageously between 0% and 1%, limits included, with respect to the total mass of the adsorbent, and - the total content by weight of oxides of alkali metal or alkaline earth metal ions, other than BaO and K 2 O, is less than 5% and preferably comprised between 0% and 2% and advantageously between 0% and 1%, limits included, with respect to the total mass of the adsorbent. - the crystals of zeolite X exhibit: i. a number-average diameter of less than or equal to 1.7 μm, preferably of less than or equal to 1.5 μm and more preferably of less than or equal to 1.2 μm, ii. an Si/AI atomic ratio of between 1.00 and 1.50, preferably between 1.05 and 1.50 and more preferably between 1.10 and 1.50, limits included, i. a number-average diameter of less than or equal to 1.7 μm, preferably of less than or equal to 1.5 μm and more preferably of less than or equal to 1.2 μm, ii. an Si/AI atomic ratio of between 1.00 and 1.50, preferably between 1.05 and 1.50 and more preferably between 1.10 and 1.50, limits included, - the content by weight of non-zeolitic phase is such that 2.0% < NZP < 5.0%, preferably such that 3.0% < NZP < 5.0%, more preferably such that 3.0% < NZP < 4.0%, advantageously such that 3.2% < NZP < 3.7%, by weight of the total mass of the adsorbent, - the content by weight of barium oxide (BaO) is greater than 23%, preferably greater than 32% and more preferably greater than 33% by weight, with respect to the total mass of the adsorbent, - the content by weight of potassium oxide K 2 O is less than 9%, preferably less than 8% and more preferably between 0% and 2% and advantageously between 0% and 1%, limits included, with respect to the total mass of the adsorbent, and - the total content by weight of oxides of alkali metal or alkaline earth metal ions, other than BaO and K 2 O, is less than 5% and preferably comprised between 0% and 2% and advantageously between 0% and 1%, limits included, with respect to the total mass of the adsorbent.
A method performed by a network node (108, 260, 900) in a communication network (100, 200) for providing Automated Neighboring Relation, ANR, data to User Equipments, UEs, (152, 1000), the method comprising: collecting information of ongoing end-to-end traffic sessions from other network nodes (130, 140, 240, 280) in the communication network; determining service characteristics of Radio Base Stations, RBSs, (150A-G, 250) based on the collected information, wherein the service characteristics refer to characteristics of services or sessions running on the RBSs, and wherein the network node is connected directly or indirectly to the RBSs; creating, for each RBS (150A-G, 250), an ANR record (525, 600) indicating the determined service characteristics of neighboring RBSs, wherein the ANR record comprises a lifetime indicator to indicate a specific amount of time for which data in the ANR record is accurate to reflect a dynamic behavior of traffic in the communication network; and transmitting the ANR record to each RBS to cause the RBS to propagate the ANR record to attached UEs. collecting information of ongoing end-to-end traffic sessions from other network nodes (130, 140, 240, 280) in the communication network; determining service characteristics of Radio Base Stations, RBSs, (150A-G, 250) based on the collected information, wherein the service characteristics refer to characteristics of services or sessions running on the RBSs, and wherein the network node is connected directly or indirectly to the RBSs; creating, for each RBS (150A-G, 250), an ANR record (525, 600) indicating the determined service characteristics of neighboring RBSs, wherein the ANR record comprises a lifetime indicator to indicate a specific amount of time for which data in the ANR record is accurate to reflect a dynamic behavior of traffic in the communication network; and transmitting the ANR record to each RBS to cause the RBS to propagate the ANR record to attached UEs.
A tubular prosthesis (20; 30; 31) comprising: a plurality of tubular rings (22; 33) radially expandable from a contracted configuration to an expanded configuration, each ring (22, 33) comprising a plurality of axially oriented struts interconnected so as to form a circumferential series of high peaks (24; 37; 37a) and low peaks (25; 38; 38a) such that each low peak (25; 38; 38a) is followed by two high peaks (24; 37; 37a), the high (24; 37; 37a) and low (25; 38; 38a) peaks having apices oriented in the same axial direction, the apices of the high (24; 37; 37a) peaks being axially offset from the apices of the low peaks (25; 38; 38a); and a bridge member (27; 32) coupling a pair of adjacent tubular rings (22; 33) together, the bridge member (27; 32) having a first end connected to a first low peak (25; 38; 38a) in a first tubular ring (22; 33) and a second end connected to a second low peak (25; 38; 38a) in an adjacent tubular ring (22; 33), wherein each bridge member (27; 32) passes between axially adjacent high peaks (24; 37; 37a) on the adjacent tubular rings (22; 33) and is generally sigmoidally shaped. a plurality of tubular rings (22; 33) radially expandable from a contracted configuration to an expanded configuration, each ring (22, 33) comprising a plurality of axially oriented struts interconnected so as to form a circumferential series of high peaks (24; 37; 37a) and low peaks (25; 38; 38a) such that each low peak (25; 38; 38a) is followed by two high peaks (24; 37; 37a), the high (24; 37; 37a) and low (25; 38; 38a) peaks having apices oriented in the same axial direction, the apices of the high (24; 37; 37a) peaks being axially offset from the apices of the low peaks (25; 38; 38a); and a bridge member (27; 32) coupling a pair of adjacent tubular rings (22; 33) together, the bridge member (27; 32) having a first end connected to a first low peak (25; 38; 38a) in a first tubular ring (22; 33) and a second end connected to a second low peak (25; 38; 38a) in an adjacent tubular ring (22; 33), wherein each bridge member (27; 32) passes between axially adjacent high peaks (24; 37; 37a) on the adjacent tubular rings (22; 33) and is generally sigmoidally shaped.
Wind turbine rotor comprising a hub, a plurality of blades and at least one pitch system for rotating a blade substantially along its longitudinal axis, the pitch system comprising a bearing, a motor and a gear system, said gear system comprising a driving pinion operationally connected with the motor, an annular gear arranged to mesh with the driving pinion, and additional gear teeth, the additional gear teeth being arranged to mesh with other parts of the gear system at least in a predefined blade position for wind speeds at or below nominal wind speed, characterized in that the additional gear teeth and the other parts of the gear system have less backlash than the driving pinion and the annular gear such that upon movement from said predefined blade position, the additional gear teeth come into contact with said other parts of the gear system before the driving pinion comes into contact with the annular gear.
An automatic gate assembly, of the type including at least one first automatic gate and at least one second automatic gate, the or each first automatic gate including: - a first frame defining a first passage, - at least one first obstacle for selectively closing and opening the first passage, the first obstacle consisting of an obstacle of a first type: swing leaf, laterally sliding leaf, pivoting leaf, and - a first motor assembly for moving the first obstacle, the or each second automatic gate including: - a second frame defining a second passage, - at least one second obstacle for selectively closing and opening the second passage, and - a second motor assembly for moving the second obstacle, characterized in that: - said second obstacle consists of an obstacle of a second type, different from the first type and chosen from the following obstacles: swing leaf, laterally sliding leaf, pivoting leaf; - the first and second motor assemblies (22A, 22B) are substantially identical to each other. - a first frame defining a first passage, - at least one first obstacle for selectively closing and opening the first passage, the first obstacle consisting of an obstacle of a first type: swing leaf, laterally sliding leaf, pivoting leaf, and - a first motor assembly for moving the first obstacle, - a second frame defining a second passage, - at least one second obstacle for selectively closing and opening the second passage, and - a second motor assembly for moving the second obstacle, - said second obstacle consists of an obstacle of a second type, different from the first type and chosen from the following obstacles: swing leaf, laterally sliding leaf, pivoting leaf; - the first and second motor assemblies (22A, 22B) are substantially identical to each other.
A leak check module for a fuel system comprising: a canister vent valve solenoid (200, 200a) configured to be coupled between a fuel vapor canister and atmospheric air for controlling air flow in a first flow path between the fuel vapor canister and atmospheric air; a pump having a first port configured to be coupled to atmospheric air; a CVV check valve solenoid (201, 201a) configured to be coupled between a second port of the pump and the fuel vapor canister for controlling air flow in a second flow path between the fuel vapor canister and atmospheric air through the pump, characterized by a manifold, wherein the CVV solenoid (220, 200a) and the CVV check valve solenoid (201, 201a) are disposed in the manifold; and wherein the manifold includes a canister port configured for coupling to the fuel vapor canister and wherein the leak check module further comprises a pump port coupled to the manifold and configured for coupling to the pump and an ATM port coupled to the manifold and configured for coupling to the atmospheric air. a canister vent valve solenoid (200, 200a) configured to be coupled between a fuel vapor canister and atmospheric air for controlling air flow in a first flow path between the fuel vapor canister and atmospheric air; a pump having a first port configured to be coupled to atmospheric air; a CVV check valve solenoid (201, 201a) configured to be coupled between a second port of the pump and the fuel vapor canister for controlling air flow in a second flow path between the fuel vapor canister and atmospheric air through the pump, characterized by a manifold, wherein the CVV solenoid (220, 200a) and the CVV check valve solenoid (201, 201a) are disposed in the manifold; and wherein the manifold includes a canister port configured for coupling to the fuel vapor canister and wherein the leak check module further comprises a pump port coupled to the manifold and configured for coupling to the pump and an ATM port coupled to the manifold and configured for coupling to the atmospheric air.
A downhole tool configured to receive a supply of fluid from surface and comprising: a body having a fluid inlet and a fluid outlet and configured to accelerate fluid flowing along a fluid flow path from the inlet to the outlet, the fluid outlet comprising a flow constriction which extends around the circumference of the downhole tool for accelerating fluid passing through the flow constriction, the fluid outlet being configured to provide a radially directed and substantially circumferentially continuous stream of fluid therefrom, and wherein the downhole tool is configured for mounting on a tubular support member and for receiving the supply of fluid delivered from surface through the support member.
A method of producing definitive endoderm cells comprising: a) culturing parthenogenetic stem cells in the presence of trichostatin A and the absence of Activin A; and b) thereafter, culturing the stem cells in the absence of TSA and in a media comprising Activin A, thereby producing definitive endoderm cells. a) culturing parthenogenetic stem cells in the presence of trichostatin A and the absence of Activin A; and b) thereafter, culturing the stem cells in the absence of TSA and in a media comprising Activin A,