mhurhangee/ep-ind-claims huggingface dataset:
A coating composition comprising: a mixture comprising: (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; wherein the ethylenically unsaturated functional group of the reactive diluent and the additional reactive functional group remaining within the polymer do not react; and wherein the coating composition has a measured solids content of at least 95 % according to test method ASTM D2369. a mixture comprising: (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; wherein the ethylenically unsaturated functional group of the reactive diluent and the additional reactive functional group remaining within the polymer do not react; and wherein the coating composition has a measured solids content of at least 95 % according to test method ASTM D2369.
A boot, particularly for ski-mountaineering or telemark skiing, which comprises a shell and a quarter that are mutually articulated about a rotation axis, said boot comprising at least one fastening device adapted to cause the mutual approach between two parts of said boot, said fastening device comprising at least one tension element that is connected to an engagement body arranged at a first part of said boot, at the second part of said boot there being a tension lever system that acts on said tension element in order to move said boot between a first, open position, in which the two parts (1a, 1b) are mutually spaced apart, and a closed position, in which the two parts (1a, 1b) are mutually close together, wherein said tension lever system comprises a main lever that can rotate on command with respect to a supporting base which is integral with said second part about a first pivoting axis, said tension lever system comprising a second lever that is supported so that it can rotate by said main lever about a second pivoting axis, said second lever being associated with said tension element and being arrangeable with respect to the main lever in an angular position, about the second pivoting axis, which is adapted to cause a relative positioning between the two parts (1a, 1b)of said boot in an intermediate position between said open position and said closed position.
A method to perform a downlink multi-point cooperation at a serving base station of a wireless communication system, the method comprising: transmitting a reference signal; receiving, from a downlink cooperation terminal, a channel gain value, a propagation delay value, and a delay spread value that are calculated by the downlink cooperation terminal with respect to each of the serving base station and a plurality of neighboring base stations (130, 132); determining, as a cooperation base station, one of the plurality of the neighboring base stations; the method being characterized in that it further comprises: determining a length of an extended cyclic prefix of each of the plurality of neighboring base stations based on the propagation delay value and the delay spread value; and determining, as a cooperation base station, one of the plurality of the neighboring base stations that includes a multi-point cooperation gain compared to an overhead occurring due to an increase in the length of the extended cyclic prefix. transmitting a reference signal; receiving, from a downlink cooperation terminal, a channel gain value, a propagation delay value, and a delay spread value that are calculated by the downlink cooperation terminal with respect to each of the serving base station and a plurality of neighboring base stations (130, 132); determining, as a cooperation base station, one of the plurality of the neighboring base stations; the method being characterized in that it further comprises: determining a length of an extended cyclic prefix of each of the plurality of neighboring base stations based on the propagation delay value and the delay spread value; and determining, as a cooperation base station, one of the plurality of the neighboring base stations that includes a multi-point cooperation gain compared to an overhead occurring due to an increase in the length of the extended cyclic prefix. determining a length of an extended cyclic prefix of each of the plurality of neighboring base stations based on the propagation delay value and the delay spread value; and determining, as a cooperation base station, one of the plurality of the neighboring base stations that includes a multi-point cooperation gain compared to an overhead occurring due to an increase in the length of the extended cyclic prefix.
A Scanning Transmission Charged Particle Microscope (STCPM) comprising a charged particle beam column (4,6) to produce a plurality of charged particle beams (B1-B4) and irradiate a specimen with each of the plurality of charged particle beams a scanning assembly to produce relative scanning motion of the plurality of charged particle beams with respect to the specimen; and an imaging system to collect charged particles of each of the charged particle beams of the plurality of charged particle beams that traverse the specimen during said irradiation, and to direct each charged particle beam of the plurality of the charged particle beams after traversing the sample onto a detector, wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location between a back focal plane and an imaging plane of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen. a charged particle beam column (4,6) to produce a plurality of charged particle beams (B1-B4) and irradiate a specimen with each of the plurality of charged particle beams a scanning assembly to produce relative scanning motion of the plurality of charged particle beams with respect to the specimen; and an imaging system to collect charged particles of each of the charged particle beams of the plurality of charged particle beams that traverse the specimen during said irradiation, and to direct each charged particle beam of the plurality of the charged particle beams after traversing the sample onto a detector, wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location between a back focal plane and an imaging plane of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen. wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location between a back focal plane and an imaging plane of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen.
A nucleic acid molecule capable of binding to SDF-1 and of blocking interaction between SDF-1 and SDF-1 receptor CXCR7, whereby the nucleic acid molecule is for use in a method for the treatment and/or prevention of a disease or disorder, for use in a method for the treatment of a subject suffering from a disease or disorder or being at risk of developing a disease or disorder as an adjunct therapy, or for use as a medicament for the treatment and/or prevention of a disease or disorder, whereby the disease or disorder is cancer expressing SDF-1 receptor CXCR7.
A Pd catalyst composition comprising phosphine-coordinated palladium ions, wherein phosphine ligand is present at 6-12 fold excess over palladium in the composition wherein the phosphine ligand is a DANPHOS family compound selected from the group consisting of: and DANPHOS/DAN2PHOS derivatives with one or more SO 3 - substituents replaced by COOH and/or SO 2 NH 2 groups and wherein the phosphine-coordinated palladium ions are in aqueous solution or wherein the phosphine-coordinated palladium ions are lyophilized.
A method of decreasing false detection of wake-up patterns of a receiver, comprising: receiving a protocol frame in the receiver, wherein the protocol frame includes a preamble, non-biphase code violation encoded information having a plurality of bit lengths, and a wake-up pattern; decoding the protocol frame using a biphase decoder to produce a detected code formed by decoded code violation bits and decoded wake-up bits; over-sampling the detected code to produce a plurality of bits and inputting the plurality of bits into a correlator and correlating the oversampled detected code with a known code. receiving a protocol frame in the receiver, wherein the protocol frame includes a preamble, non-biphase code violation encoded information having a plurality of bit lengths, and a wake-up pattern; decoding the protocol frame using a biphase decoder to produce a detected code formed by decoded code violation bits and decoded wake-up bits; over-sampling the detected code to produce a plurality of bits and inputting the plurality of bits into a correlator and correlating the oversampled detected code with a known code.
A method for random access, applied to a User Equipment, LTE, the method comprising: sending a preamble on a configured physical random access channel, PRACH, resource, and a UE Identifier, ID, on a configured uplink resource, wherein the UE ID is a cell radio network temporary identifier, C-RNTI; receiving random access response, RAR, message based on first identification information, the first identification information comprising the C-RNTI, wherein the RAR message includes second identification information; and monitoring a physical downlink control channel, PDCCH, in a preset time window based on the second identification information or third identification information associated with the second identification information, wherein the PDCCH is scrambled through the second identification information or the third identification information; characterized by the second identification information comprising any one of: a 5th generation,5G, system architecture evolution, SAE, temporary mobile subscriber identity, 5G-S-TMSI; part of the 5G-S-TMSI; and a resume ID. sending a preamble on a configured physical random access channel, PRACH, resource, and a UE Identifier, ID, on a configured uplink resource, wherein the UE ID is a cell radio network temporary identifier, C-RNTI; receiving random access response, RAR, message based on first identification information, the first identification information comprising the C-RNTI, wherein the RAR message includes second identification information; and monitoring a physical downlink control channel, PDCCH, in a preset time window based on the second identification information or third identification information associated with the second identification information, wherein the PDCCH is scrambled through the second identification information or the third identification information; characterized by the second identification information comprising any one of: a 5th generation,5G, system architecture evolution, SAE, temporary mobile subscriber identity, 5G-S-TMSI; part of the 5G-S-TMSI; and a resume ID.
A method for enriching a liquid with oxygen, whereby the oxygen is introduced into the liquid as part of a gas mixture, i.e., the ambient air, by means of an injector and is partially dissolved in it, and whereby the liquid which leaves the injector and which is laden with dissolved and undissolved gas components of the air is introduced into a degassing unit connected downstream to the injector for the removal of undissolved gas components forming bubbles in the liquid, characterised in that a multiple injector having at least two injector chambers (11, 12, 13, 14) disposed in parallel to one another in the flow direction of the liquid, each having an intake port (6, 6', 6") and brought together in the region of a liquid outlet of the multiple injector is used as the injector; an underpressure is brought about at the intake ports (6, 6', 6") of the chambers by the liquid flowing through the multiple injector, this underpressure aspirating in the ambient air via an intake port; and in that the undissolved components of the air are separated from the liquid introduced into the degassing unit coming from the multiple injector by vortexing the liquid in the degassing unit designed correspondingly for this purpose, whereby still undissolved oxygen is aspirated out of the degassing unit into the multiple injector as a component of a gas-liquid mixture via an exhaust connection (9, 9') of the degassing unit and a return line (18, 18') connecting this unit with the intake ports (6', 6") of a multiple injector due to the underpressure at the intake ports (6', 6"), and is once again introduced into the liquid flowing through the multiple injector; whereas, lighter (when compared to oxygen), undissolved gas components of the air, i.e., essentially nitrogen, collecting in the upper part of the degassing unit are discharged into the atmosphere via a gas discharge valve of the degassing unit, and the liquid enriched with dissolved oxygen exits from a liquid outlet of the degassing unit.
A positive electrode of a rechargeable lithium battery, comprising: a nickel-based positive active material; a binder; and a conductive material, wherein the binder is included in an amount of 140 to 160 parts by weight based on 100 parts by weight of the conductive material, and wherein the positive active material is represented by the following Formula 1: [Formula 9] Li x MyO 2-z wherein M is M' 1-k A k, M' is Ni 1-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 ≤ a + b ≤ 0.85, and 0.1 ≤ b ≤ 0.4, A is a dopant, 0 ≤ k < 0.05, 0.95 ≤ x ≤ 1.05, x + y ≈ 2, and 0 ≤ z ≤ 0.05. a nickel-based positive active material; a binder; and a conductive material, wherein the binder is included in an amount of 140 to 160 parts by weight based on 100 parts by weight of the conductive material, and wherein the positive active material is represented by the following Formula 1: [Formula 9] Li x MyO 2-z wherein M is M' 1-k A k, M' is Ni 1-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 ≤ a + b ≤ 0.85, and 0.1 ≤ b ≤ 0.4, A is a dopant, 0 ≤ k < 0.05, 0.95 ≤ x ≤ 1.05, x + y ≈ 2, and 0 ≤ z ≤ 0.05. wherein M is M' 1-k A k, M' is Ni 1-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 ≤ a + b ≤ 0.85, and 0.1 ≤ b ≤ 0.4, A is a dopant, 0 ≤ k < 0.05, 0.95 ≤ x ≤ 1.05, x + y ≈ 2, and 0 ≤ z ≤ 0.05.
A lateral flow assay device for determining at least one measurable environmental parameter of a sample that includes a biomolecular analyte, the device comprising: a) a solid support; b) a sample portion for receiving the sample including the biomolecular analyte; c) a diagnostic portion comprising a multisite array of test sites, each test site comprising a probe for the biomolecular analyte, wherein at each test site (81, 82, 83) the conditions for the interaction between the biomolecular analyte and the probe can be varied independently; d) an absorbent portion of absorbent material for providing capillary flow; e) at least one electrode as an actuation element for controlling a local environmental parameter at each test site to independently vary the conditions for interacting with the biomolecular analyte; and f) at least one electrode as a sensing element, wherein the sample portion, diagnostic portion, and absorbent portion are in capillary flow communication resulting in a capillary flow from the sample portion towards the absorbent portion, whereby the sample flows across the probe at each test site to provide contact between the sample and such probe, and characterized in that the at least one electrode as a sensing element determines the at least one measurable environmental parameter of the sample and comprises a series of multiple electrode pairs arranged side-by-side across the flow path of the sample perpendicular to the capillary flow, to determine the flow-shape. a) a solid support; b) a sample portion for receiving the sample including the biomolecular analyte; c) a diagnostic portion comprising a multisite array of test sites, each test site comprising a probe for the biomolecular analyte, wherein at each test site (81, 82, 83) the conditions for the interaction between the biomolecular analyte and the probe can be varied independently; d) an absorbent portion of absorbent material for providing capillary flow; e) at least one electrode as an actuation element for controlling a local environmental parameter at each test site to independently vary the conditions for interacting with the biomolecular analyte; and f) at least one electrode as a sensing element,
A peritoneal dialysis system comprising: a logic implementer (94, 112, 114, 118); and an automated peritoneal dialysis ("APD") machine (104, 104a, 104b), characterized in that the logic implementer is configured to: (i) generate a number of peritoneal dialysis therapy regimens that meet at least one therapy target input; (ii) accept a filter input; and (iii) filter the generated therapy regimens according to the filter input to refine the number of therapy regimens available for selection, the at least one therapy target input is selected from the group consisting of: minimum urea clearance, minimum urea Kt/V, minimum creatinine clearance, minimum glucose absorption, and ultrafiltration removed and in that the logic implementer is further configured to accept the at least one therapy target input, and in that the automated peritoneal dialysis ("APD") machine is configured to run one of the refined number of therapy regimens. a logic implementer (94, 112, 114, 118); and an automated peritoneal dialysis ("APD") machine (104, 104a, 104b), characterized in that the logic implementer is configured to: (i) generate a number of peritoneal dialysis therapy regimens that meet at least one therapy target input; (ii) accept a filter input; and (iii) filter the generated therapy regimens according to the filter input to refine the number of therapy regimens available for selection, (i) generate a number of peritoneal dialysis therapy regimens that meet at least one therapy target input; (ii) accept a filter input; and (iii) filter the generated therapy regimens according to the filter input to refine the number of therapy regimens available for selection, the at least one therapy target input is selected from the group consisting of: minimum urea clearance, minimum urea Kt/V, minimum creatinine clearance, minimum glucose absorption, and ultrafiltration removed and in that the logic implementer is further configured to accept the at least one therapy target input, and in that the automated peritoneal dialysis ("APD") machine is configured to run one of the refined number of therapy regimens.
A processor comprising: at least a first core (104 0) that includes: execution logic (106; 240) to execute operations; a first event counter to determine a first event count associated with events of a first type that have occurred on the first core since a start of a first defined interval; a second event counter to determine a second event count associated with events of a second type that have occurred since the start of the first defined interval; and stall logic to stall until the first defined interval is expired, execution of operations by the first core including at least the operations associated with the first type events, the stall being responsive to the first event count exceeding a first combination threshold concurrently with the second event count exceeding a second combination threshold and wherein the first event count exceeding the first combination threshold does not trigger the stall of the execution of the operations unless the second event count exceeds the second combination threshold; and wherein responsive to the first event count exceeding a first threshold that is larger than the first combination threshold while the second event count does not exceed the second combination threshold, the stall logic is to selectively stall execution of first operations associated with events of the first type and to permit executions of other operations. execution logic (106; 240) to execute operations; a first event counter to determine a first event count associated with events of a first type that have occurred on the first core since a start of a first defined interval; a second event counter to determine a second event count associated with events of a second type that have occurred since the start of the first defined interval; and stall logic to stall until the first defined interval is expired, execution of operations by the first core including at least the operations associated with the first type events, the stall being responsive to the first event count exceeding a first combination threshold concurrently with the second event count exceeding a second combination threshold and wherein the first event count exceeding the first combination threshold does not trigger the stall of the execution of the operations unless the second event count exceeds the second combination threshold; and wherein responsive to the first event count exceeding a first threshold that is larger than the first combination threshold while the second event count does not exceed the second combination threshold, the stall logic is to selectively stall execution of first operations associated with events of the first type and to permit executions of other operations.