mhurhangee/ep-ind-claims huggingface dataset:
A catheter comprising: an elongated tubular body possessing an outside diameter of from 1.35 to 3 mm and an inside diameter, the tubular body possessing a cross-sectional area in the direction perpendicular to the longitudinal direction of the catheter main body of (π × [(D1/2) 2 - (d1/2) 2]); the tubular body comprising a distal end portion and a proximal end portion, and being comprised of an inner layer forming an inside surface of said tubular body, an outer layer forming an outside surface of said tubular body, and a plurality of reinforcing wires between said inside surface and said outside surface; said reinforcing wires each possessing a length, a thickness substantially parallel to a radial direction of said tubular body and a width substantially perpendicular to said thickness, said plurality of reinforcing wires together possessing a total cross-sectional area; said tubular body possesses a ratio of the outside diameter of said tubular body to the thickness of said reinforcing wires from 55 to 65, wherein a ratio of the inside diameter to the outside diameter of said tubular body is from 0.85 to 0.91, and said tubular body possesses a wall thickness, and a ratio of the wall thickness of said tubular body to the thickness of said reinforcing wires is from 3.5 to 3.8, characterized in that said tubular body possesses a proportion of the total cross-sectional area of said plurality of reinforcing wires to the cross-sectional area of said tubular body which is less than 25%, but not less than 17%, and said tubular body has been subjected to surface roughening. an elongated tubular body possessing an outside diameter of from 1.35 to 3 mm and an inside diameter, the tubular body possessing a cross-sectional area in the direction perpendicular to the longitudinal direction of the catheter main body of (π × [(D1/2) 2 - (d1/2) 2]); the tubular body comprising a distal end portion and a proximal end portion, and being comprised of an inner layer forming an inside surface of said tubular body, an outer layer forming an outside surface of said tubular body, and a plurality of reinforcing wires between said inside surface and said outside surface; said reinforcing wires each possessing a length, a thickness substantially parallel to a radial direction of said tubular body and a width substantially perpendicular to said thickness, said plurality of reinforcing wires together possessing a total cross-sectional area; said tubular body possesses a ratio of the outside diameter of said tubular body to the thickness of said reinforcing wires from 55 to 65, wherein a ratio of the inside diameter to the outside diameter of said tubular body is from 0.85 to 0.91, and said tubular body possesses a wall thickness, and a ratio of the wall thickness of said tubular body to the thickness of said reinforcing wires is from 3.5 to 3.8, characterized in that said tubular body possesses a proportion of the total cross-sectional area of said plurality of reinforcing wires to the cross-sectional area of said tubular body which is less than 25%, but not less than 17%, and said tubular body has been subjected to surface roughening.
A sensing circuit for a heated conduit for use in a respiratory apparatus, the sensing circuit comprising: a sensing wire (404, 504) coupled to a heating circuit for the heated conduit; a temperature sensor coupled to the sensing wire (404, 504) and configured to measure the temperature of the heated conduit; a sensing resistor coupled to the sensing wire (404, 504) and configured to provide an output to indicate the temperature measured by the temperature sensor; and a bias generator circuit configured to provide a reference voltage to the sensing resistor to allow determination of the output as a function of a voltage drop across the sensing resistor during both heating on and heating off cycles of the heating circuit, characterised in that the sensing circuit includes a track and hold circuit configured to measure a voltage of the sensing wire (404, 504) and provide the measured voltage to the bias generator circuit, wherein the bias generator circuit is configured to adjust the reference voltage as a function of the measured voltage. a sensing wire (404, 504) coupled to a heating circuit for the heated conduit; a temperature sensor coupled to the sensing wire (404, 504) and configured to measure the temperature of the heated conduit; a sensing resistor coupled to the sensing wire (404, 504) and configured to provide an output to indicate the temperature measured by the temperature sensor; and a bias generator circuit configured to provide a reference voltage to the sensing resistor to allow determination of the output as a function of a voltage drop across the sensing resistor during both heating on and heating off cycles of the heating circuit, characterised in that the sensing circuit includes a track and hold circuit configured to measure a voltage of the sensing wire (404, 504) and provide the measured voltage to the bias generator circuit, wherein the bias generator circuit is configured to adjust the reference voltage as a function of the measured voltage.
A composition for administration as a spray for intranasal delivery of a benzodiazepine drug comprising: (i) the drug; and (ii) a non-aqueous vehicle comprising 30 to 90% v/v propylene glycol and 10 to 70% v/v propylene carbonate. (i) the drug; and (ii) a non-aqueous vehicle comprising 30 to 90% v/v propylene glycol and 10 to 70% v/v propylene carbonate.
An agent for use in therapeutic treatment or prophylaxis of infections by bacteria resistant to beta-lactam antibiotics or glycopeptide antibiotics, comprising a) from 0.05 to 4% by weight of a cationic oligomer or polymer consisting of a chemically modified hydroxyalkylcellulose, and b) from 0.001 to 2% by weight polylysine and/or polyarginine; c) from 0.1 to 0.8 % by weight non-ionic and/or amphoteric surfactant, and d) at least 85% by weight water and/or polyalkylglycols, wherein the weight percentages are respectively based on the total weight of the agent. a) from 0.05 to 4% by weight of a cationic oligomer or polymer consisting of a chemically modified hydroxyalkylcellulose, and b) from 0.001 to 2% by weight polylysine and/or polyarginine; c) from 0.1 to 0.8 % by weight non-ionic and/or amphoteric surfactant, and d) at least 85% by weight water and/or polyalkylglycols, wherein the weight percentages are respectively based on the total weight of the agent.
One-piece fluid hose for conducting a fluid, comprising: a hose wall, which comprises at least one circumferential thickening bulge in order to increase the tensile stiffness of the fluid hose, wherein the fluid hose comprises a fluid inlet opening and a fluid outlet opening, wherein fluid is conductable in the fluid hose from the fluid inlet opening to the fluid outlet opening in a fluid flow direction, wherein the circumferential thickening bulge is formed on an inner side of the hose wall, wherein the circumferential thickening bulge comprises a first side, which faces the fluid inlet opening, wherein the circumferential thickening bulge 115) comprises a second side, which faces the fluid outlet opening, wherein the first side is inclined in respect to the inside at a first angle of inclination, wherein the second side is inclined in respect to the inside at a second angle of inclination, characterized in that the first angle of inclination is greater than the second angle of inclination, a hose wall, which comprises at least one circumferential thickening bulge in order to increase the tensile stiffness of the fluid hose, wherein the fluid hose comprises a fluid inlet opening and a fluid outlet opening, wherein fluid is conductable in the fluid hose from the fluid inlet opening to the fluid outlet opening in a fluid flow direction, wherein the circumferential thickening bulge is formed on an inner side of the hose wall, wherein the circumferential thickening bulge comprises a first side, which faces the fluid inlet opening, wherein the circumferential thickening bulge 115) comprises a second side, which faces the fluid outlet opening, wherein the first side is inclined in respect to the inside at a first angle of inclination, wherein the second side is inclined in respect to the inside at a second angle of inclination, characterized in that the first angle of inclination is greater than the second angle of inclination,
Protection device in particular for controlling an automatic closing system against the collision with people, animals and objects, where the automatic closing system is provided with a general control centre, said protection device comprising a photoelectric transmitter with an infrared signal sender, a photoelectric receiver with a reception circuit of the infrared signal from the photoelectric cell transmitter, characterized in that the photoelectric cell receiver incorporates a transmitter/receiver circuit arranged to communicate, by means of a wireless radiofrequency transmission, with an electronic management card associated with the general control centre of the automatic closing system to be protected, in order to enable or put out of operation said automatic closing system in response to the state of the infrared beam between the photoelectric cells, wherein both the transmitter and receiver photoelectric cells are provided autonomously with rechargeable batteries connected to an integrated photovoltaic module.
A methane production device (1, 1B, 1C, 1D) configured to produce methane from carbon dioxide and hydrogen, the methane production device comprising: a separator (10, 20) provided with an adsorbent (11, 21) that is placed inside thereof and that has a carbon dioxide adsorbing performance and configured to separate carbon dioxide from a gas that is supplied from a supply source of the gas containing carbon dioxide; a hydrogen injector (12, 22) configured to inject hydrogen that is supplied from a hydrogen supply source, to inside of the separator (10, 20) and take out carbon dioxide that is desorbed from the adsorbent (11, 21), from the separator (10, 20); a reactor provided with a catalyst that is placed inside thereof and that has a methanation performance and configured to cause a methanation reaction by using a material gas including the carbon dioxide taken out from the separator (10, 20) and the hydrogen used in the injection. a hydrogen adding portion configured to add hydrogen that is supplied from the hydrogen supply source, to the material gas that is supplied to the reactor; and a controller configured to control an amount of hydrogen that is to be added by the hydrogen adding portion, according to a ratio of the carbon dioxide taken out from the separator (10, 20) to the hydrogen injected from the hydrogen injector (12, 22), and to adjust a ratio of hydrogen and carbon dioxide included in the material gas that is supplied to the reactor. a separator (10, 20) provided with an adsorbent (11, 21) that is placed inside thereof and that has a carbon dioxide adsorbing performance and configured to separate carbon dioxide from a gas that is supplied from a supply source of the gas containing carbon dioxide; a hydrogen injector (12, 22) configured to inject hydrogen that is supplied from a hydrogen supply source, to inside of the separator (10, 20) and take out carbon dioxide that is desorbed from the adsorbent (11, 21), from the separator (10, 20); a reactor provided with a catalyst that is placed inside thereof and that has a methanation performance and configured to cause a methanation reaction by using a material gas including the carbon dioxide taken out from the separator (10, 20) and the hydrogen used in the injection. a hydrogen adding portion configured to add hydrogen that is supplied from the hydrogen supply source, to the material gas that is supplied to the reactor; and a controller configured to control an amount of hydrogen that is to be added by the hydrogen adding portion, according to a ratio of the carbon dioxide taken out from the separator (10, 20) to the hydrogen injected from the hydrogen injector (12, 22), and to adjust a ratio of hydrogen and carbon dioxide included in the material gas that is supplied to the reactor.
A firearm with an electronic programming system for programmable munitions implemented in said firearm, said system adapted to send information to a detonating fuse of an ammunition, which stores the information, and adapted to receive information on the characteristics of the ammunition from the detonating fuse itself; said firearm, comprising at least one firearm-control unit, for controlling all the systems implemented in said firearm; said electronic programming system comprising at least one actuation mechanism, for providing an electrical coupling between the detonating fuse and the programming system itself, and a programmer-control device, which, via appropriate interfaces, manages the data flows for communication both with the detonating fuse and with the firearm-control unit.
One or more non-transitory computer readable media storing instructions which, when executed by one or more hardware processors, cause the one or more hardware processors to perform the following operations: performing, by a garbage collection thread (506a-b), a traversal of a plurality of frames on a call stack associated with an application thread (508a-b) such that a respective frame state of each of the plurality of frames becomes a current mark state; wherein assumable values for the respective frame state comprises the current mark state, a remap state, and an old mark state; wherein the traversal of the plurality of frames comprises: identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different. performing, by a garbage collection thread (506a-b), a traversal of a plurality of frames on a call stack associated with an application thread (508a-b) such that a respective frame state of each of the plurality of frames becomes a current mark state; wherein assumable values for the respective frame state comprises the current mark state, a remap state, and an old mark state; wherein the traversal of the plurality of frames comprises: identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different. identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different.
Method of manufacturing containers from plastic parisons, which comprises: - a heating phase in which the parisons are heated as they pass through an oven fitted with a plurality of radiated heat sources, at a predetermined speed of travel and at a predetermined heating profile; - a blowing phase in which the parisons are blow-moulded, within a blow-moulding unit, to form the containers, this method being characterized in that it comprises the following operations: a) modifying the speed of travel of the parisons; b) modifying the heating profile; c) at the end of a heating phase establishing an actual thermal profile for at least one parison; d) during the blowing phase, measuring the pressure inside the said parison and detecting at least one singular pressure point; e) measuring a first discrepancy between the actual thermal profile of the parison and a theoretical thermal profile, and a second discrepancy between the singular pressure point and a theoretical singular point; f) repeating operations b) to e) for as long as the discrepancies are not both within a predetermined respective tolerance; g) repeating operations a) to e) for as long as the discrepancies are both within the respective tolerance and as long as the speed of travel has not reached a predetermined final value. - a heating phase in which the parisons are heated as they pass through an oven fitted with a plurality of radiated heat sources, at a predetermined speed of travel and at a predetermined heating profile; - a blowing phase in which the parisons are blow-moulded, within a blow-moulding unit, to form the containers, a) modifying the speed of travel of the parisons; b) modifying the heating profile; c) at the end of a heating phase establishing an actual thermal profile for at least one parison; d) during the blowing phase, measuring the pressure inside the said parison and detecting at least one singular pressure point; e) measuring a first discrepancy between the actual thermal profile of the parison and a theoretical thermal profile, and a second discrepancy between the singular pressure point and a theoretical singular point; f) repeating operations b) to e) for as long as the discrepancies are not both within a predetermined respective tolerance; g) repeating operations a) to e) for as long as the discrepancies are both within the respective tolerance and as long as the speed of travel has not reached a predetermined final value.
A functionalized polymer defined by at least one of the formulae: where π is a polydiene polymer chain having a cis-1,4-linkage content greater than 60%, θ is a heterocyclic group, and R is a divalent organic group, where the polymer is prepared by polymerizing conjugated diene monomer with a lanthanide-based catalyst system.
A hand extruder comprising an extruder unit with an extruder screw and an extruder nozzle and further comprising a drive unit for the extruder screw and a gear mechanism arranged between the drive unit and the extruder screw, wherein a section (15 a) of the extruder screw with sharp-edged profiling is joined to a cone in whose area the diameter of the screw widens, wherein the cone forms the end of an extruder-side section of the screw, wherein an extruder-side section of the screw and a gear-side section of the screw are arranged so as to be spaced apart from each other, characterised in that in axial direction between the metallic cone and the gear-side section of the extruder screw, which is also metallic, a ring-shaped plastic separating element with poor heat conduction is arranged and in that at least one axial groove ball bearing is arranged on the gear-side section of the extruder screw.
A method for connecting a first layer (3; 3') of a first plastic material with a second layer (6; 6') of another plastic material of a multi-layer security document body (2; 2') which are stacked flat on top of each other such that the first layer (3; 3') and the second layer (6; 6') comprise a boundary surface (7; 7') in a flat overlap region, with the first plastic material and the other plastic material having different fusion temperatures and the layers being connected to one another by the introduction of energy, wherein the energy is selectively introduced into a partial region (23, 23'; 23", 23") of the flat overlap region at the boundary surface (7; 7') such that the first layer (3; 3') and the second layer (6; 6') are each heated above their respective fusion temperatures and connected to one another only locally in the partial region (23, 23'; 23", 23") or in a limited surrounding area of the partial region (23, 23'; 23", 23") of the overlap region at the boundary surface (7; 7'), so creating in the partial region (23, 23'; 23", 23") or the limited surrounding area of the partial region (23, 23'; 23", 23") a connection which cannot be detached without being destroyed.
Illustration means for illustrating to choosers of colour how their perception of a colour presented as a small sample of colour will shift when the colour is imparted to a large surface area wherein the illustration means comprises a) carrier means, b) a plurality of pairs of colours carried by the carrier means and where each pair comprises a first colour present on the carrier means as a small colour sample and a second colour present on the carrier means as a small colour sample which second colour sample is adjacent the first colour sample and wherein i) the first and second colours in a pair have a similar hue, ii) the first small colour sample has a CIELAB lightness value of L u * and a CIELAB chroma value of C u *, iii) the second small colour sample has a CIELAB lightness value of L s * and a CIELAB chroma value of C s * wherein L s * and C s * are given by the equations: L s * = α L L u * 2 + β L L u * + 100 1 − 100 α L − β L and C s * = α C C u * where α L is from - 0.007 to - 0.0001 β L is from 0.8 to 1.5 α C is from 1.05 to 2.3 whereby the second colour illustrates the colour to which the first colour will be perceived to have shifted when the first colour has been imparted to a large area. a) carrier means, b) a plurality of pairs of colours carried by the carrier means and where each pair comprises a first colour present on the carrier means as a small colour sample and a second colour present on the carrier means as a small colour sample which second colour sample is adjacent the first colour sample and wherein i) the first and second colours in a pair have a similar hue, ii) the first small colour sample has a CIELAB lightness value of L u * and a CIELAB chroma value of C u *, iii) the second small colour sample has a CIELAB lightness value of L s * and a CIELAB chroma value of C s * wherein L s * and C s * are given by the equations: L s * = α L L u * 2 + β L L u * + 100 1 − 100 α L − β L and C s * = α C C u * where α L is from - 0.007 to - 0.0001 β L is from 0.8 to 1.5 α C is from 1.05 to 2.3 i) the first and second colours in a pair have a similar hue, ii) the first small colour sample has a CIELAB lightness value of L u * and a CIELAB chroma value of C u *, iii) the second small colour sample has a CIELAB lightness value of L s * and a CIELAB chroma value of C s * wherein L s * and C s * are given by the equations: L s * = α L L u * 2 + β L L u * + 100 1 − 100 α L − β L and C s * = α C C u * where α L is from - 0.007 to - 0.0001 β L is from 0.8 to 1.5 α C is from 1.05 to 2.3 where α L is from - 0.007 to - 0.0001 β L is from 0.8 to 1.5 α C is from 1.05 to 2.3
A copolymer comprising a main hydrocarbon chain and side groups, wherein the side groups comprise carboxylic groups, polyoxyalkylene groups and gem-bisphosphonate groups.