mhurhangee/ep-ind-claims huggingface dataset:
A sedation device (1, 60), including: a housing having an internal volume of between 30ml and 110 ml; the housing having a ventilator chamber and an associated juxtaposed evaporator chamber communicating with the ventilator chamber; a filter mounted between the ventilator chamber and the evaporator chamber forming a common gas-permeable dividing wall between the ventilator chamber and the evaporator chamber; the ventilator chamber having an inlet port for connection to a ventilator; the evaporator chamber having an outlet port for connection to a patient breathing tube; and an evaporator mounted within the evaporator chamber, characterised in that the inlet port is mounted at a side of the ventilator chamber and is positioned to direct air across a surface of the filter in the ventilator chamber, and there is provided an air deflector ramp mounted within the ventilator chamber, the deflector ramp associated with and adjacent the inlet port, the deflector ramp extending across the inlet port and spaced-apart therefrom, the deflector ramp being angled relative to the inlet port and flaring outwardly away from the inlet port to direct incoming air from the inlet port inwardly from the inlet port towards the filter and outwardly from the inlet port across a surface of the filter. a housing having an internal volume of between 30ml and 110 ml; the housing having a ventilator chamber and an associated juxtaposed evaporator chamber communicating with the ventilator chamber; a filter mounted between the ventilator chamber and the evaporator chamber forming a common gas-permeable dividing wall between the ventilator chamber and the evaporator chamber; the ventilator chamber having an inlet port for connection to a ventilator; the evaporator chamber having an outlet port for connection to a patient breathing tube; and an evaporator mounted within the evaporator chamber, characterised in that the inlet port is mounted at a side of the ventilator chamber and is positioned to direct air across a surface of the filter in the ventilator chamber, and there is provided an air deflector ramp mounted within the ventilator chamber, the deflector ramp associated with and adjacent the inlet port, the deflector ramp extending across the inlet port and spaced-apart therefrom, the deflector ramp being angled relative to the inlet port and flaring outwardly away from the inlet port to direct incoming air from the inlet port inwardly from the inlet port towards the filter and outwardly from the inlet port across a surface of the filter.
A pump system comprising: an electric motor having an output shaft that is reversibly rotatable in a first rotational direction and an opposite second rotational direction; a pump having an input shaft that is movable in a first linear direction and an opposite second linear direction; and a converter coupling the output shaft to the input shaft such that: rotation of the output shaft in the first rotational direction translates the input shaft in the first linear direction; rotation of the output shaft in the second rotational direction translates the input shaft in the second linear direction; and a controller that repeatedly reverses rotation of the output shaft to produce reciprocating motion of the input shaft, characterized in that: the electric motor comprises a brushless direct current motor; the controller reverses current flow direction of current provided to the electric motor to reverse rotation of the output shaft; and the controller varies a time interval between current flow direction reversals, or varies time between current flow direction reversals from one reversal to the next, or varies time between current flow direction reversals to gradually increase and gradually decrease an upper and lower limit. an electric motor having an output shaft that is reversibly rotatable in a first rotational direction and an opposite second rotational direction; a pump having an input shaft that is movable in a first linear direction and an opposite second linear direction; and a converter coupling the output shaft to the input shaft such that: rotation of the output shaft in the first rotational direction translates the input shaft in the first linear direction; rotation of the output shaft in the second rotational direction translates the input shaft in the second linear direction; and rotation of the output shaft in the first rotational direction translates the input shaft in the first linear direction; rotation of the output shaft in the second rotational direction translates the input shaft in the second linear direction; and a controller that repeatedly reverses rotation of the output shaft to produce reciprocating motion of the input shaft, characterized in that: the electric motor comprises a brushless direct current motor; the controller reverses current flow direction of current provided to the electric motor to reverse rotation of the output shaft; and the controller varies a time interval between current flow direction reversals, or varies time between current flow direction reversals from one reversal to the next, or varies time between current flow direction reversals to gradually increase and gradually decrease an upper and lower limit.
Method (1, 2) for drafting an irradiation plan for a radiation-generating device, wherein said irradiation plan has a plurality of irradiation plans which correlate at least partially with at least one framework parameter appearing at the time of application of the irradiation plan, and wherein during drafting of said irradiation plan for these irradiation plans correlations with the at least one framework parameter that are to be expected with higher probability are taken into greater consideration, characterized in that different irradiation plans and/or different groups of irradiation plans are correlated with different states of the framework parameter.
An uplink transmission method, comprising: when transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process, or at a first moment before transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process: when a first condition is satisfied, considering that a new data indicator, NDI, for the first HARQ process is toggled, wherein the first condition requires that the first HARQ process is a preconfigured HARQ process that can be used for autonomous uplink transmission, and before the subframe, there is no uplink grant for the first HARQ process delivered to a HARQ entity such that the first HARQ process is not used for transmission before the subframe, and transmission performed in the subframe is initial transmission for the first HARQ process; and performing new uplink data transmission in the subframe by using the first HARQ process when transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process, or at a first moment before transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process: when a first condition is satisfied, considering that a new data indicator, NDI, for the first HARQ process is toggled, wherein the first condition requires that the first HARQ process is a preconfigured HARQ process that can be used for autonomous uplink transmission, and before the subframe, there is no uplink grant for the first HARQ process delivered to a HARQ entity such that the first HARQ process is not used for transmission before the subframe, and transmission performed in the subframe is initial transmission for the first HARQ process; and performing new uplink data transmission in the subframe by using the first HARQ process
A film comprising a first layer wherein the film has a moisture vapor transmission rate of at least 300 g/m 2 -24 hours, according to ASTM D6701-01, at 37.8 °C at 100% relative humidity, and wherein the film is from 6.4 μm (0.25 mils) to 0.13 mm (5 mils) in thickness; the layer comprises a selectively permeable blend; the blend comprises, based on the weight of the blend, 50 to 80 % of polyamide, 20 to 50 % of a potassium-containing composition, a dipolymer in an amount of up to 10 %, and a compatibilizer in an amount of up to 5 %; the potassium-containing composition comprises an ethylene acid copolymer; wherein said ethylene acid copolymer comprises, based on the weight of the ethylene acid copolymer, copolymerized units of ethylene, 10 to 35 % of copolymerized units of at least one C 3-8 α,β-ethylenically unsaturated carboxylic acid, and optionally from 0 to 35 % of copolymerized units of a comonomer selected from the group consisting of alkyl acrylate, alkyl methacrylate and combinations thereof, the rest being derived from the ethylene; and greater than 80% of the carboxylic acid moieties of the ethylene acid copolymer are neutralized to salts with potassium cations or a combination of potassium and one or more alkali metal, transition metal, and alkaline earth metal cations in which potassium comprises a preponderance of the cations; the dipolymer consists essentially of copolymerized units of ethylene and alkyl acrylate or alkyl methacrylate; the compatibilizer is selected from the group consisting of a dicarboxylate-containing copolymer, an ethylene glycidyl ester copolymer, and combinations thereof; and the ethylene glycidyl ester copolymer comprises, based on the weight of the ethylene glycidyl ester copolymer, 30 to 95% of copolymerized units of ethylene, 0.5 to 25% of copolymerized units of one or more olefins of the formula CH 2 =C(R 1)CO 2 R 2, and 0 to 70% of copolymerized units of one or more olefins of the formula CH 2 =C(R 3)CO 2 R 4; wherein R 1 is hydrogen or an alkyl group with 1 to 6 carbon atoms, R 2 is glycidyl, R 3 is hydrogen or an alkyl group with 1 to 8 carbon atoms and R 4 is an alkyl group with 1 to 8 carbon atoms.
Connecting element for cantilever slab with - an insulating body, - a reinforcement penetrating through the insulating body and - a multitude of pressure elements, which are integrated in the insulating body, whereby the reinforcement is formed by a multitude of sectional steel rods, characterized in that the sectional steel rods have in cross section an angled, a U-shaped, a H-shaped or a T-profile. - an insulating body, - a reinforcement penetrating through the insulating body and - a multitude of pressure elements, which are integrated in the insulating body,
A process for the preparation of the compound of formula I comprising a) reacting the compound of formula II in the presence of magnesium or an organometallic reagent of formula III R 1 -M 2 X, wherein R 1 is C 1 -C 4 alkyl; M 2 is Lithium or Magnesium and X is halogen or absent; with a compound of formula IV CF 3 -C -R 2, wherein R 2 is halogen, hydroxyl, C 1 -C 4 alkoxy, (di-C 1 -C 4 alkyl)amino, OC CF 3, phenoxy or OM 1; wherein M 1 is Lithium, Magnesium, Sodium or Potassium; to the compound of formula V, and b) reacting the compound of formula V with an alkali metal fluoride in the presence of catalytic amounts of a phase transfer catalyst in the presence of a polar solvent to the compound of formula I. a) reacting the compound of formula II in the presence of magnesium or an organometallic reagent of formula III R 1 -M 2 X, wherein R 1 is C 1 -C 4 alkyl; M 2 is Lithium or Magnesium and X is halogen or absent; with a compound of formula IV CF 3 -C -R 2, wherein R 2 is halogen, hydroxyl, C 1 -C 4 alkoxy, (di-C 1 -C 4 alkyl)amino, OC CF 3, phenoxy or OM 1; wherein M 1 is Lithium, Magnesium, Sodium or Potassium; to the compound of formula V, and R 1 is C 1 -C 4 alkyl; M 2 is Lithium or Magnesium and X is halogen or absent; b) reacting the compound of formula V with an alkali metal fluoride in the presence of catalytic amounts of a phase transfer catalyst in the presence of a polar solvent to the compound of formula I.
Process for separating metals from electronic boards, characterized in that it comprises: a) a step of treating said optionally fragmented electronic boards in an aqueous medium under supercritical conditions of said medium and b) a subsequent step of crushing the materials in the solid state that are derived from the step of treating under supercritical conditions. a) a step of treating said optionally fragmented electronic boards in an aqueous medium under supercritical conditions of said medium and b) a subsequent step of crushing the materials in the solid state that are derived from the step of treating under supercritical conditions.
A nitrogen-containing aromatic compound, which is represented by the general formula: in the formula: ring A represents an aromatic ring represented by the formula and fused with two adjacent rings at arbitrary positions; ring B represents a heterocycle represented by the formula and fused with two adjacent rings at arbitrary positions; Y's each represent C-R or N, provided that one to four of Y's each represent N; X in the ring B in the general formula represents N-Z; R represents hydrogen, an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, an aromatic hydrocarbon group having 6 to 50 carbon atoms, or an aromatic heterocyclic group having 3 to 50 carbon atoms and free of a fused heterocycle having four or more rings; and Z represents a monovalent group produced by removing hydrogen from dibenzofuran or dibenzothiophene, wherein the dibenzofuran or dibenzothiophene may have 1 to 6 substituents selected from an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, an alkoxy group having 1 to 20 carbon atoms, an acyl group having 2 to 20 carbon atoms, a dialkylamino group having 2 to 20 carbon atoms, a diarylamino group having 6 to 28 carbon atoms, a phosphanyl group having 6 to 18 carbon atoms, or a silyl group having 3 to 18 carbon atoms, wherein both Z may be identical to or different from each other. ring A represents an aromatic ring represented by the formula and fused with two adjacent rings at arbitrary positions; ring B represents a heterocycle represented by the formula and fused with two adjacent rings at arbitrary positions; Y's each represent C-R or N, provided that one to four of Y's each represent N; X in the ring B in the general formula represents N-Z; R represents hydrogen, an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, an aromatic hydrocarbon group having 6 to 50 carbon atoms, or an aromatic heterocyclic group having 3 to 50 carbon atoms and free of a fused heterocycle having four or more rings; and Z represents a monovalent group produced by removing hydrogen from dibenzofuran or dibenzothiophene, wherein the dibenzofuran or dibenzothiophene may have 1 to 6 substituents selected from an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, an alkoxy group having 1 to 20 carbon atoms, an acyl group having 2 to 20 carbon atoms, a dialkylamino group having 2 to 20 carbon atoms, a diarylamino group having 6 to 28 carbon atoms, a phosphanyl group having 6 to 18 carbon atoms, or a silyl group having 3 to 18 carbon atoms, wherein both Z may be identical to or different from each other.
A method for forming a covalent conjugate of a polymeric dye and a targeting moiety, the method comprising preparing a mixture comprising the polymeric dye, the targeting moiety, and a magnesium salt, and allowing the mixture to age for a time and at a temperature sufficient to form the covalent conjugate, wherein: a) the polymeric dye comprises: i) two or more fluorescent or colored moieties; ii) at least one negatively charged phosphate group; and iii) a reactive group Q capable of forming a covalent bond with a complementary reactive group Q' on the targeting moiety, wherein each of the two or more fluorescent or colored moieties are joined to an adjacent fluorescent or colored moiety via a linker comprising the at least one negatively charged phosphate group; and b) the targeting moiety has affinity for a target analyte and comprises the complementary reactive group Q'. a) the polymeric dye comprises: i) two or more fluorescent or colored moieties; ii) at least one negatively charged phosphate group; and iii) a reactive group Q capable of forming a covalent bond with a complementary reactive group Q' on the targeting moiety, wherein each of the two or more fluorescent or colored moieties are joined to an adjacent fluorescent or colored moiety via a linker comprising the at least one negatively charged phosphate group; and i) two or more fluorescent or colored moieties; ii) at least one negatively charged phosphate group; and iii) a reactive group Q capable of forming a covalent bond with a complementary reactive group Q' on the targeting moiety, b) the targeting moiety has affinity for a target analyte and comprises the complementary reactive group Q'.
A tissue removal device (10; 210; 310; 410; 510), comprising: a hollow elongate member (12; 212; 312; 412; 512) having an outer wall (11; 211; 311; 411; 511) and a lumen (13; 213; 313;413; 513); a selectively deployable tissue-cutting element (19; 219; 319; 419; 519) formed by a distal end of the hollow elongate member; an end cap positioned on a distal-most end of the hollow elongate member, distal to the tissue-cutting element; and first and second tethers (14, 16; 214; 314; 414, 416; 514) extending through the lumen and coupled to the end cap, movement of the first and second tethers causing the tissue-cutting element to move from an insertion configuration where the tissue-cutting element is not deployed to a tissue-cutting configuration where the tissue-cutting element is deployed such that it is radially extended relative to the insertion configuration; in which the tethers are eccentrically coupled to the end cap; characterised in that the tethers are arranged so that tension can be independently applied to one of the first and second tethers, to cause the distal end of the hollow elongate member to bend in a direction towards the tether being activated. a hollow elongate member (12; 212; 312; 412; 512) having an outer wall (11; 211; 311; 411; 511) and a lumen (13; 213; 313;413; 513); a selectively deployable tissue-cutting element (19; 219; 319; 419; 519) formed by a distal end of the hollow elongate member; an end cap positioned on a distal-most end of the hollow elongate member, distal to the tissue-cutting element; and
A radiation detector comprising: a radiation detecting unit including a radiation sensor sensitive to light, a signal amplifier, a pulse-height discriminator, and a counter; an optical pulse emitting unit configured to emit an optical pulse for confirming operational integrity of the radiation detecting unit; an emission controlling unit configured to control an operation of the optical pulse emitting unit; a light path through which light is led from the optical pulse emitting unit to a vicinity of the radiation sensor; a circuit board to which the radiation sensor is attached; and a filter provided around the circuit board and configured to adjust response characteristics of the radiation, wherein the filter is formed with a groove along which the light path is provided, and the filter along the light path has a thickness smaller than that of a remaining portion of the filter. a radiation detecting unit including a radiation sensor sensitive to light, a signal amplifier, a pulse-height discriminator, and a counter; an optical pulse emitting unit configured to emit an optical pulse for confirming operational integrity of the radiation detecting unit; an emission controlling unit configured to control an operation of the optical pulse emitting unit; a light path through which light is led from the optical pulse emitting unit to a vicinity of the radiation sensor; a circuit board to which the radiation sensor is attached; and a filter provided around the circuit board and configured to adjust response characteristics of the radiation, wherein the filter is formed with a groove along which the light path is provided, and the filter along the light path has a thickness smaller than that of a remaining portion of the filter.
An apparatus for applying grout in an annular region between a tubular sub-sea foundation pile and a leg of an offshore structure inserted into the foundation pile, the apparatus comprising a rigid tube adapted to be inserted into the region, the rigid tube comprising an inlet for receiving grout, a sidewall, an outlet disposed in the sidewall and a closed end opposite to the inlet end, wherein the closed end is provided by a plug or cap.
An adaptive cruise control system for controlling speed of a vehicle in relation to moving or stationary objects (A', B') by accelerating or retarding the vehicle, said system comprising: a vehicle throttle controller, a vehicle braking system controller, at least one object detection sensor arranged to detect moving or stationary objects (A', B') in the surroundings in front of said vehicle, and a control unit configured to control the speed of said vehicle in relation to a selected one of the detected moving or stationary objects (A', B') by controlling the throttle controller and the vehicle braking system controller, said adaptive cruise control system further comprising: a steering system with a steering wheel arranged to allow the provision of manual steering input to the steering system of the vehicle and a steering angle sensor, characterized in that the steering system is configured to identify a specific momentary manual steering wheel actuation for target object selection initiated as a result of a steering wheel actuation of a threshold magnitude out from and back to a steering wheel neutral position within a threshold time duration, wherein the neutral position is a position in which the host vehicle is driven substantially straight ahead without turning so that the specific momentary manual steering wheel actuation is differentiable from a steering wheel actuation for change of vehicle driving directions, by comparing data from the steering angle sensor with predetermined thresholds, and to select a next one of the moving or stationary objects (A', B') in the surroundings in front of said vehicle to control the speed of said vehicle in relation to, based on the direction of the specific momentary manual steering wheel actuation indicated by the steering angle sensor.
A shaft cover for covering a shaft opening, wherein the shaft cover comprises a support structure, wherein the support structure comprises several rib elements, at least one fixing element (3, 15, 19) and at least one longitudinal element, characterized in that the rib elements can be fixed by the at least one fixing element (3, 15, 19) and that the at least one longitudinal element is connected with several rib elements.