mhurhangee/ep-ind-claims huggingface dataset:
A densely packed, low bend loss optical fiber cable comprising an outer cable jacket; a plurality of buffer tubes surrounded by the cable jacket, each buffer tube includes an inner surface defining a channel having a diameter, D1, and an outer surface facing an inner surface of the cable jacket; a plural number, N, of optical fibers, located within the channel of each buffer tube and surrounded by the inner surface of the buffer tube, wherein each optical fiber has an outer diameter, D2; and small sized active particles located within the channel of each buffer tube such that at least some of the active particles are located in spaces between the optical fibers, wherein an average maximum outer dimension of the active particles within each buffer tube is ≤ 50 microns, wherein the active particles are at least one of super absorbing polymer, SAP, water absorbing particles, fire retardant magnesium hydroxide particles, fire retardant aluminum trihydrate particles, and smoke suppressant molybdenum-based particles; wherein the N optical fibers are densely packed within each buffer tube such that a diameter ratio parameter, Ω, is defined as the ratio D1/D2, and is 2.25+0.143*N ≤ Ω ≤ 1.14+0.313*N, wherein N is greater than 6; and wherein each of the plural number of optical fibers exhibit: a mode field diameter of ≥ 8.6 microns at 1310 nm; a cable cutoff of less than 1260 nm; a macrobend loss of less than 0.5 dB/turn at 1550 nm for a mandrel diameter of 20 mm. an outer cable jacket; a plurality of buffer tubes surrounded by the cable jacket, each buffer tube includes an inner surface defining a channel having a diameter, D1, and an outer surface facing an inner surface of the cable jacket; a plural number, N, of optical fibers, located within the channel of each buffer tube and surrounded by the inner surface of the buffer tube, wherein each optical fiber has an outer diameter, D2; and small sized active particles located within the channel of each buffer tube such that at least some of the active particles are located in spaces between the optical fibers, wherein an average maximum outer dimension of the active particles within each buffer tube is ≤ 50 microns, wherein the active particles are at least one of super absorbing polymer, SAP, water absorbing particles, fire retardant magnesium hydroxide particles, fire retardant aluminum trihydrate particles, and smoke suppressant molybdenum-based particles; wherein the N optical fibers are densely packed within each buffer tube such that a diameter ratio parameter, Ω, is defined as the ratio D1/D2, and is 2.25+0.143*N ≤ Ω ≤ 1.14+0.313*N, wherein N is greater than 6; and wherein each of the plural number of optical fibers exhibit: a mode field diameter of ≥ 8.6 microns at 1310 nm; a cable cutoff of less than 1260 nm; a macrobend loss of less than 0.5 dB/turn at 1550 nm for a mandrel diameter of 20 mm. a mode field diameter of ≥ 8.6 microns at 1310 nm; a cable cutoff of less than 1260 nm; a macrobend loss of less than 0.5 dB/turn at 1550 nm for a mandrel diameter of 20 mm.
A method of wireless communication, comprising: determining, by an eNB, a first fractional amount of a first data flow to be served to a user equipment, UE, via a first communication link using a first radio access technology, RAT; determining, by the eNB, a second fractional amount of the first data flow to be served to the UE via a second communication link using a second RAT; serving, by the eNB, the first fractional amount of the first data flow to the UE using the first communication link; and serving, by the eNB, the second fractional amount of the first data flow to the UE using the second communication link. determining, by an eNB, a first fractional amount of a first data flow to be served to a user equipment, UE, via a first communication link using a first radio access technology, RAT; determining, by the eNB, a second fractional amount of the first data flow to be served to the UE via a second communication link using a second RAT; serving, by the eNB, the first fractional amount of the first data flow to the UE using the first communication link; and serving, by the eNB, the second fractional amount of the first data flow to the UE using the second communication link.
A composition comprising unmodified low density lipoprotein particles and modified high density lipoprotein particles comprising lipids and apolipoprotein A-1, wherein the lipids include phospholipids, wherein the composition is formed by an extracorporeal process comprising exposing a biological fluid comprising low density lipoprotein particles and high density lipoprotein particles to a solvent, wherein the unmodified low density lipoprotein particles are unmodified, as compared to the low density lipoprotein particles in the biological fluid prior to exposure of the biological fluid to the solvent, and wherein the modified high density lipoprotein particles have a lower content of cholesterol compared to the corresponding high density lipoprotein particles in the biological fluid prior to exposure of the biological fluid to the solvent.
A solid formulation for use in the treatment of disorders or diseases related to a mineral deficiency comprising i) a solid composition comprising or, alternatively, consisting of: - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium, calcium, iron, zinc or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and ii) pharmaceutically acceptable additives and excipients. wherein said formulation is in orally disintegrated form. i) a solid composition comprising or, alternatively, consisting of: - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium, calcium, iron, zinc or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and - a mineral salt selected from the group comprising or, alternatively, consisting of magnesium, calcium, iron, zinc or iodine mineral salts and mixtures thereof, - sucrose esters or sucresters E473, and - a lecithin, wherein said lecithin is a non-hydrolyzed lecithin and is in an amount of less than 1 % by weight, relative to the weight of the composition, and ii) pharmaceutically acceptable additives and excipients.
Method for flushing a section of a fuel system of a burner of a gas turbine for liquid fuel, having the steps: provision of a supply line for supplying liquid fuel from a fuel source to the burner, provision of a first and a second connection point (30; 18) on the supply line, provision of a liquid flushing medium at the first connection point, and generation of a vacuum at the second connection point for sucking away the liquid fuel contained in the section between the two connection points (30; 18) through the second connection point, the first connection point being provided remotely from the burner and the second connection point near the burner on the supply line, and the liquid fuel being sucked away causes the medium to be sucked in at the first connection point for flushing the respective section between the two connection points (30, 18), characterized in that a multifunction actuating member is provided at the first connection point remote from the burner. provision of a supply line for supplying liquid fuel from a fuel source to the burner, provision of a first and a second connection point (30; 18) on the supply line, provision of a liquid flushing medium at the first connection point, and generation of a vacuum at the second connection point for sucking away the liquid fuel contained in the section between the two connection points (30; 18) through the second connection point, the first connection point being provided remotely from the burner and the second connection point near the burner on the supply line, and the liquid fuel being sucked away causes the medium to be sucked in at the first connection point for flushing the respective section between the two connection points (30, 18), characterized in that a multifunction actuating member is provided at the first connection point remote from the burner.
A gripping arm of a waste disposal vehicle for receiving containers (3; 4) with residual materials, recyclable materials or the like which are to be disposed, wherein the gripping arm comprises at least one container carrier, which can be used to lift a container (3; 4) by reaching underneath a protruding area, wherein, in addition to the container carrier(s), the gripping arm comprises at least one section (14a; 14b; 14c) of an additional carrier designed as a comb bar with several upwardly extending engaging prongs, which interacts with a likewise movable hold-down clamp (15; 16) arranged above it for locking the container held by the carrier or the additional carrier, characterized in that in particular the container carrier is provided for reaching underneath a collar, and that the additional carrier can be moved into and out of the engaged position with a component facing outwardly in the direction of the container to be received (3; 4) in a plane near the outermost extension plane of the container carrier(s).
A track fitting assembly (10; 310) having an engaged position and an unengaged position, comprising: a lower track fitting (22; 322) defining a recess (90; 390) therein and at least one retaining feature (60; 360), wherein the at least one retaining feature is configured to hold the lower track fitting within a track if the track fitting assembly is in the engaged position; and a cam (28; 328) member having a cam main body that defines an aperture (152; 466); a button (24; 324) having an indicator surface (100; 400), wherein the button is selectively retained within the recess (90; 390) of the lower track fitting; and a biasing (23; 323) member configured to exert a biasing force, wherein the biasing member is retained within the recess (90; 390) of the lower track fitting and positioned relative to the button to exert the biasing force against the button, and wherein the biasing force urges the button through the aperture of the cam member such that the indicator surface (100; 400) of the button is visible through the aperture of the cam member if the track fitting assembly is in the engaged position; wherein the button (24; 324) is retained within the recess (90; 390) of the lower track fitting (22; 322) and is not visible if the track fitting assembly is in the unengaged position. a lower track fitting (22; 322) defining a recess (90; 390) therein and at least one retaining feature (60; 360), wherein the at least one retaining feature is configured to hold the lower track fitting within a track if the track fitting assembly is in the engaged position; and a cam (28; 328) member having a cam main body that defines an aperture (152; 466); a button (24; 324) having an indicator surface (100; 400), wherein the button is selectively retained within the recess (90; 390) of the lower track fitting; and a biasing (23; 323) member configured to exert a biasing force, wherein the biasing member is retained within the recess (90; 390) of the lower track fitting and positioned relative to the button to exert the biasing force against the button, and wherein the biasing force urges the button through the aperture of the cam member such that the indicator surface (100; 400) of the button is visible through the aperture of the cam member if the track fitting assembly is in the engaged position; wherein the button (24; 324) is retained within the recess (90; 390) of the lower track fitting (22; 322) and is not visible if the track fitting assembly is in the unengaged position.
Composition for producing optical elements with a refractive index gradient, characterized in that the composition is a) at least one organic polymer; and b) at least one metal complex of the formula X (m-n) MR 1 n where M is Ti, Zr, Ta, V, Nb, Cr, Mo, W, Mn or Re; R 1 is derived from an α-hydroxy ketone, glyoxylate or amino ketone; X is a group without a light-sensitive group; n has a value of at least 1 to m and m corresponds to the valency of the metal. a) at least one organic polymer; and b) at least one metal complex of the formula X (m-n) MR 1 n where M is Ti, Zr, Ta, V, Nb, Cr, Mo, W, Mn or Re; R 1 is derived from an α-hydroxy ketone, glyoxylate or amino ketone; X is a group without a light-sensitive group; n has a value of at least 1 to m and m corresponds to the valency of the metal. where M is Ti, Zr, Ta, V, Nb, Cr, Mo, W, Mn or Re; R 1 is derived from an α-hydroxy ketone, glyoxylate or amino ketone; X is a group without a light-sensitive group; n has a value of at least 1 to m and m corresponds to the valency of the metal.
Fuel injector, having a low-pressure region which is formed in an injector housing and in which there is arranged an actuator in particular in the form of a piezo actuator, wherein the actuator interacts with a first hydraulic coupler which has a master piston, wherein the master piston is coupled at least indirectly to a nozzle needle, wherein the master piston causes the nozzle needle to be lifted off from a sealing seat when the actuator is charged, and wherein the nozzle needle is arranged in a high-pressure chamber of the injector housing, wherein a second hydraulic coupler with at least one coupler piston (57, 63) is provided, which generates a closing force on the nozzle needle when the actuator is discharged, characterized in that the at least one coupler piston of the second hydraulic coupler is arranged so as to be operatively connected to the low-pressure region of the injector housing.
A process for producing surface treated polysaccharide superabsorbent polymer particles, comprising the steps of: i. mixing a polysaccharide with a polyphosphate or polyphosphoric acid as a crosslinking agent in the presence of water to form a polysaccharide gel, ii. drying the polysaccharide gel, iii. comminuting the dried polysaccharide gel to form dried polysaccharide superabsorbent polymer particles, iv. coating the dried polysaccharide superabsorbent polymer particles with a polyphosphate or polyphosphoric acid as a crosslinking agent, v. heating the coated dried polysaccharide superabsorbent polymer particles to affect surface crosslinking of the coated dried polysaccharide superabsorbent polymer particle surface, and vi. treating the surface of the crosslinked dried polysaccharide superabsorbent polymer particles with a multivalent metal salt or an acid wherein the multivalent metal salt includes a cation selected from Al, Fe, Zr, Mg and Zn and an anion selected from halides, chlorohydrates, sulfates, nitrates and acetates and wherein the acid is selected from phosphoric acid, acetic acid, lactic acid, citric acid, glycolic acid and gluconic acid. i. mixing a polysaccharide with a polyphosphate or polyphosphoric acid as a crosslinking agent in the presence of water to form a polysaccharide gel, ii. drying the polysaccharide gel, iii. comminuting the dried polysaccharide gel to form dried polysaccharide superabsorbent polymer particles, iv. coating the dried polysaccharide superabsorbent polymer particles with a polyphosphate or polyphosphoric acid as a crosslinking agent, v. heating the coated dried polysaccharide superabsorbent polymer particles to affect surface crosslinking of the coated dried polysaccharide superabsorbent polymer particle surface, and vi. treating the surface of the crosslinked dried polysaccharide superabsorbent polymer particles with a multivalent metal salt or an acid wherein the multivalent metal salt includes a cation selected from Al, Fe, Zr, Mg and Zn and an anion selected from halides, chlorohydrates, sulfates, nitrates and acetates and wherein the acid is selected from phosphoric acid, acetic acid, lactic acid, citric acid, glycolic acid and gluconic acid.
A method for avoiding a rear-end collision between a first vehicle and a second vehicle being located behind the first vehicle along a travelling direction of the first vehicle and travelling along the same travelling direction, the method comprising - receiving a detection result comprising a representation of the second vehicle, - determining whether the second vehicle is driving in a manual driving mode, if it is determined that the second vehicle is driving in a manual driving mode: - determining a collision risk between the second vehicle and the first vehicle, and - triggering a collision mitigation maneuver of the first vehicle, if a collision risk has been determined, wherein the collision mitigation maneuver is a driving maneuver, if it is determined that the second vehicle is not driving in a manual driving mode: - abandoning the method. - receiving a detection result comprising a representation of the second vehicle, - determining whether the second vehicle is driving in a manual driving mode, if it is determined that the second vehicle is driving in a manual driving mode: - determining a collision risk between the second vehicle and the first vehicle, and - triggering a collision mitigation maneuver of the first vehicle, if a collision risk has been determined, wherein the collision mitigation maneuver is a driving maneuver, - determining a collision risk between the second vehicle and the first vehicle, and - triggering a collision mitigation maneuver of the first vehicle, if a collision risk has been determined, wherein the collision mitigation maneuver is a driving maneuver, if it is determined that the second vehicle is not driving in a manual driving mode: - abandoning the method. - abandoning the method.
An antibiotic glycopeptide-anaiogous compound for use in the treatment of glycopeptide-resistant bacterial infections, comprising a pseudopeptide analog of a glycopeptide antibiotic aglycone, wherein the compound comprises a core pseudopeptide sequence having an amidine group that replaces a carboxamide linking group of a core peptide of the glycopeptide antibiotic aglycone, wherein a carboxamide O atom of a D ring-bearing aminoacid residue of the peptide core of the glycopeptide antibiotic aglycone has been replaced by an NH group, to provide a respective Ψ-amidine pseudopeptide analog of the glycopeptide antibiotic aglycone, and wherein the compound is any one of the following vancomycin aglycone [Ψ[C(=NH)NH]Tpg 4]-amidine analogs, or or any pharmaceutically acceptable salt thereof or any combination thereof: or or wherein the compound is a compound of formula:
A method of transmitting data to a user equipment in a cellular communications network, the method comprising the steps of transmitting a signal to the user equipment, the signal indicating at least one resource set configured for the user equipment, transmitting a signal informing the user equipment of a subset of the configured resource sets in relation to which layer 1 signalling will be sent; and transmitting a subsequent indication via layer 1 signalling to the user equipment indicating configured resource sets that may be utilised for transmission of data to the UE, wherein the subsequent indication is transmitted as a bitmap in which each bit corresponds to a group of the resource sets configured for the user equipment. transmitting a signal to the user equipment, the signal indicating at least one resource set configured for the user equipment, transmitting a signal informing the user equipment of a subset of the configured resource sets in relation to which layer 1 signalling will be sent; and transmitting a subsequent indication via layer 1 signalling to the user equipment indicating configured resource sets that may be utilised for transmission of data to the UE, wherein the subsequent indication is transmitted as a bitmap in which each bit corresponds to a group of the resource sets configured for the user equipment.
An audibility meter calibration system comprising: - an acoustic transducer (21,22,23) configured to produce an acoustic signal from an electrical signal, wherein the acoustic transducer (21,22,23) comprises a memory, wherein identification information and calibration information of said transducer (21,22,23) are stored; - an audibility meter configured to generate an electrical signal capable of producing a corresponding acoustic signal in the transducer (21,22,23), wherein the audibility meter comprises a microprocessor, and a memory wherein calibration information of the audibility meter itself is stored and wherein the audibility meter is also configured to read the memory of the acoustic transducer (21,22,23) and to compensate the response of the acoustic transducer (21,22,23) based on the calibration information read on the memory of the acoustic transducer (21,22,23) and on the frequency response of the human ear; characterised in that the audibility meter calibration system further comprises: - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; and in that the audibility meter is further configured to compensate the frequency response of the audibility meter itself by modifying the electrical signal generated, and to update the calibration information for same based on the voltage reference for the calibration device. - an acoustic transducer (21,22,23) configured to produce an acoustic signal from an electrical signal, wherein the acoustic transducer (21,22,23) comprises a memory, wherein identification information and calibration information of said transducer (21,22,23) are stored; - an audibility meter configured to generate an electrical signal capable of producing a corresponding acoustic signal in the transducer (21,22,23), wherein the audibility meter comprises a microprocessor, and a memory wherein calibration information of the audibility meter itself is stored and wherein the audibility meter is also configured to read the memory of the acoustic transducer (21,22,23) and to compensate the response of the acoustic transducer (21,22,23) based on the calibration information read on the memory of the acoustic transducer (21,22,23) and on the frequency response of the human ear; characterised in that the audibility meter calibration system further comprises: - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; and in that the audibility meter is further configured to compensate the frequency response of the audibility meter itself by modifying the electrical signal generated, and to update the calibration information for same based on the voltage reference for the calibration device.