mhurhangee/patent-ind-claim-en huggingface dataset:
A resuscitator including : a patient valve assembly , a timing valve operable to supply cycles of ventilation gas to the patient valve assembly , a patient outlet connected to the patient valve assembly , and a gas entrainment device opening into the patient valve assembly ; wherein said resuscitator includes a variable restrictor device including a first inlet connected to the supply of ventilation gas from the timing valve , a first outlet connected to a control inlet of the timing valve , a second inlet connected to the supply of ventilation gas from the timing valve , a second outlet connected to the patient outlet , a third inlet connected with the second outlet , and a third outlet connected to the gas entrainment device , and wherein the variable restrictor device includes a manually-displaceable control member displaceable to simultaneously alter the restriction of gas flow from the first, second and third inlets (30, 31 and 38) to the respective first, second and third outlets (33, 37 and 39) such as thereby to vary three separate functions simultaneously, namely, rate of operation of the timing valve , supply of gas to the patient outlet and supply of entrainment gas to the gas entrainment device .
A fluidic device for analyzing a fluid sample, the fluidic device comprising: a cartridge device configured to receive the fluid sample, the cartridge device including: a fluidic chamber ; at least one micro fluidic channel in fluid communication with the fluidic chamber ; a venting port configured to apply a pneumatic force to the fluidic chamber ; and a controller configured to control the pneumatic force applied to the fluidic chamber via the venting port , wherein the cartridge device is received by the fluidic device in a vertical or tilted position such that at least a portion of fluid inside the fluidic chamber is pulled by gravity in a direction away from the venting port or towards a bottom of the fluidic chamber , characterized in that the cartridge device further includes at least one passive valve located within the at least one micro fluidic channel and configured to allow or stop fluid flow through the at least one micro fluidic channel based on a pressure difference. a fluidic chamber ; at least one micro fluidic channel in fluid communication with the fluidic chamber ; a venting port configured to apply a pneumatic force to the fluidic chamber ; and a controller configured to control the pneumatic force applied to the fluidic chamber via the venting port , wherein the cartridge device is received by the fluidic device in a vertical or tilted position such that at least a portion of fluid inside the fluidic chamber is pulled by gravity in a direction away from the venting port or towards a bottom of the fluidic chamber , characterized in that the cartridge device further includes at least one passive valve located within the at least one micro fluidic channel and configured to allow or stop fluid flow through the at least one micro fluidic channel based on a pressure difference.
Lubricating composition for use in the crankcase of an engine comprising: (i) a base oil comprising at least one monoester or a mixture of monoesters, wherein said monoester or mixture of monoesters has a kinematic viscosity at 100°C of not more than 4 mm 2 /s, a viscosity index of at least 130 and a Noack evaporation loss of not more than 20 wt%; and (ii) a polymeric viscosity index improvers selected from (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof wherein said at least one monoester is the reaction product of a monohydric alcohol and a monocarboxylic acid wherein said monohydric alcohol is at least one saturated branched-chain aliphatic monohydric alcohol having between 16 and 36 carbon atoms and wherein said monocarboxylic acid is at least one saturated straight-chain aliphatic monocarboxylic acid having between 5 and 10 carbon atoms. (i) a base oil comprising at least one monoester or a mixture of monoesters, wherein said monoester or mixture of monoesters has a kinematic viscosity at 100°C of not more than 4 mm 2 /s, a viscosity index of at least 130 and a Noack evaporation loss of not more than 20 wt%; and (ii) a polymeric viscosity index improvers selected from (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof wherein said at least one monoester is the reaction product of a monohydric alcohol and a monocarboxylic acid wherein said monohydric alcohol is at least one saturated branched-chain aliphatic monohydric alcohol having between 16 and 36 carbon atoms and wherein said monocarboxylic acid is at least one saturated straight-chain aliphatic monocarboxylic acid having between 5 and 10 carbon atoms. (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof
Injector of an injection system of an internal combustion engine, having an injector housing, having a piezo-actuator control unit, having a connecting plug on the head of the injector housing, and having an electrical connection between the control unit and the connecting plug within the injector housing, wherein the electrical connection comprises a contact element which has conductor tracks integrated into an insulating body , which conductor tracks are connected to the terminals of the control unit and of the connecting plug , wherein one end of the insulating body abuts against the control unit or against the connecting plug and the other end is arranged with a spacing to the connecting plug or to the control unit , and wherein the contact element has an elastic device by means of which the insulating body , which abuts against the control unit or against the connecting plug, is braced against the control unit or the connecting plug, wherein the elastic device for bracing the abutting insulating body has a spring element which is fixed to the insulating body and to the control unit or the connecting plug, wherein the spring element is locked by engagement thereof into a recess or behind an undercut of the control unit or of the connecting plug.
A printing apparatus comprising: an ink containing a medium and a fixing polymer ; an ink ejector configured to eject the ink to an object on which a printed record is to be produced; a dryer configured to heat the object to expedite evaporation of the medium ; a melting device configured to irradiate the ink on the object with ultraviolet rays to subject the ink to heat that causes the fixing polymer to melt and to fix the ink to the object accordingly; a first temperature control unit configured to control the dryer ; and an UV control unit configured to control the melting device , wherein the ink contains a first polymer different from the fixing polymer , the first temperature control unit is configured to control the dryer to heat the object to a temperature equal to or higher than a glass-transition temperature of the first polymer and lower than the glass-transition temperature of the fixing polymer , and the UV control unit is configured to control the melting device to heat the ink on the object to a temperature equal to or higher than the glass-transition temperature of the fixing polymer . an ink containing a medium and a fixing polymer ; an ink ejector configured to eject the ink to an object on which a printed record is to be produced; a dryer configured to heat the object to expedite evaporation of the medium ; a melting device configured to irradiate the ink on the object with ultraviolet rays to subject the ink to heat that causes the fixing polymer to melt and to fix the ink to the object accordingly; a first temperature control unit configured to control the dryer ; and an UV control unit configured to control the melting device , wherein the ink contains a first polymer different from the fixing polymer , the first temperature control unit is configured to control the dryer to heat the object to a temperature equal to or higher than a glass-transition temperature of the first polymer and lower than the glass-transition temperature of the fixing polymer , and the UV control unit is configured to control the melting device to heat the ink on the object to a temperature equal to or higher than the glass-transition temperature of the fixing polymer .
Household robot, in particular an automatically movable cleaning robot for a floor area, - having a housing , - having a running gear which is arranged on the underside of the housing , - having a sensor system for detecting the area surrounding the housing and - having a control for automatically controlling the running gear , - wherein detection means for detecting a sub-area of the floor area which has been soiled by excrement from a living being are provided, and - wherein the control means change the operating mode of the household robot in dependency of an output signal from the detection means , characterized in - that the control means control the running gear in order to at least partly prevent the soiled sub-area from being driven over,. - in that the detection means have at least one infrared camera for recording a thermal image of the surroundings of the housing , - in that evaluation means are provided for evaluating the thermal image, and - in that the control means then at least partly prevents the soiled sub-area from being driven over and cleaned if at least one sub-area of the thermal image has a predefined difference in temperature to the further surroundings. - having a housing , - having a running gear which is arranged on the underside of the housing , - having a sensor system for detecting the area surrounding the housing and - having a control for automatically controlling the running gear , - wherein detection means for detecting a sub-area of the floor area which has been soiled by excrement from a living being are provided, and - wherein the control means change the operating mode of the household robot in dependency of an output signal from the detection means , characterized in - that the control means control the running gear in order to at least partly prevent the soiled sub-area from being driven over,. - in that the detection means have at least one infrared camera for recording a thermal image of the surroundings of the housing , - in that evaluation means are provided for evaluating the thermal image, and - in that the control means then at least partly prevents the soiled sub-area from being driven over and cleaned if at least one sub-area of the thermal image has a predefined difference in temperature to the further surroundings.
A non-pneumatic tire comprising an outer annular tread band , and a plurality of connecting structures connecting the tread band to a hub , wherein said outer annular tread band comprises a shear band comprising or formed of at least one first reinforcement layer located radially inward of the outer annular tread band and at least one a second reinforcement layer located radially outward of the at least one first reinforcement layer , wherein the one or more first and second reinforcement layers each comprise a plurality of parallel reinforcement cords, wherein the at least one first reinforcement layer is separated from the at least one second reinforcement layer by a first shear layer , and wherein the first shear layer is reinforced with reinforcements, characterized in that the shear band has an overall shear stiffness (GA) in the range of from 15000 N to 35000 N, wherein the shear stiffness GA is determined by measuring the deflection on a representative test specimen taken from the shear band, the upper surface of the test specimen is subjected to a lateral shear force F, wherein the test specimen is a representative sample taken from the shear band and having the same radial thickness as the shear band and wherein the shear stiffness GA is then calculated from the following equation: GA=F*L/ΔX, where F is the shear load, L is the shear layer thickness, and ΔX is the shear deflection.
A package for a thixotropic product, wherein the package comprises: - a first longitudinal edge, - a second longitudinal edge opposite the first longitudinal edge, - a first end welding surface at a first end of the package, - a second end welding surface at a second end of the package opposite the first end, - a predetermined tearing point which is positioned and aligned in such a way that, by tearing, starting at the predetermined tearing point, an opening is producible on the package which is smaller than a cross-section of the package, wherein the package includes a first additional welding surface separated and spaced from the first and second end welding surfaces and projecting into the package from the first longitudinal edge, and wherein the predetermined tearing point is incorporated into the first additional welding surface , characterized in that the first additional welding surface , as viewed from the first longitudinal edge toward the second longitudinal edge, has a tapering course. - a first longitudinal edge, - a second longitudinal edge opposite the first longitudinal edge, - a first end welding surface at a first end of the package, - a second end welding surface at a second end of the package opposite the first end, - a predetermined tearing point which is positioned and aligned in such a way that, by tearing, starting at the predetermined tearing point, an opening is producible on the package which is smaller than a cross-section of the package, wherein the package includes a first additional welding surface separated and spaced from the first and second end welding surfaces and projecting into the package from the first longitudinal edge, and wherein the predetermined tearing point is incorporated into the first additional welding surface , characterized in that the first additional welding surface , as viewed from the first longitudinal edge toward the second longitudinal edge, has a tapering course.
A method of providing route guidance that is executed by a route guiding apparatus including a location sensing unit and an operation recognition unit , and a server including a controller , the method comprising: the route guiding apparatus transmitting (S10) to the server a user's location sensing signal sensed by the location sensing unit ; the server receiving the user's location sensing signal from the route guiding apparatus ; the route guiding apparatus transmitting (S20) to the server a user's operation recognition signal recognized by the operation recognition unit ; the server receiving the user's operation recognition signal from the route guiding apparatus ; the route guiding apparatus transmitting (S30) to the server a user's bio-signal received from a bio-signal sensing unit ; the server receiving the user's bio-signal from the route guiding apparatus ; the controller determining (S40) whether the user is on a trail, on a cycle road, on a motor road, on a sidewalk or indoors for a user's location based on at least one of the location sensing signal, the operation recognition signal and the bio-signal; the controller choosing one of a map data among a trail map, a cycle road map, a motor road map, a sidewalk route map and an indoor map corresponding to the determined user's location; the server transmitting (S50) the chosen map data to the route guiding apparatus ; the route guiding apparatus receiving the chosen map data from the server ; and the route guiding apparatus guiding (S60) a route to a destination based on the received map data. the route guiding apparatus transmitting (S10) to the server a user's location sensing signal sensed by the location sensing unit ; the server receiving the user's location sensing signal from the route guiding apparatus ; the route guiding apparatus transmitting (S20) to the server a user's operation recognition signal recognized by the operation recognition unit ; the server receiving the user's operation recognition signal from the route guiding apparatus ; the route guiding apparatus transmitting (S30) to the server a user's bio-signal received from a bio-signal sensing unit ; the server receiving the user's bio-signal from the route guiding apparatus ; the controller determining (S40) whether the user is on a trail, on a cycle road, on a motor road, on a sidewalk or indoors for a user's location based on at least one of the location sensing signal, the operation recognition signal and the bio-signal; the controller choosing one of a map data among a trail map, a cycle road map, a motor road map, a sidewalk route map and an indoor map corresponding to the determined user's location; the server transmitting (S50) the chosen map data to the route guiding apparatus ; the route guiding apparatus receiving the chosen map data from the server ; and the route guiding apparatus guiding (S60) a route to a destination based on the received map data.
Cylinder for driving mechanisms, the cylinder comprising a main body having a cavity , a first rotating body rotatably housed in said cavity and having an axis of rotation along a longitudinal development direction of said cylinder , and a cam , rotatably fixed to said main body and selectively couplable to said first rotating body to rotate about said axis of rotation rigidly with said first rotating body , wherein said cylinder comprises - a coupling element structured to alternatively assume a coupling position in which it couples said cam with said first rotating body and a decoupling position in which it does not couple said cam with said first rotating body , - a handling body rigidly fixed to said first rotating body for rotating said first rotating body about said axis of rotation ; - a second rotating body rotatably housed in said handling body and having a respective axis of rotation , wherein said second rotating body comprises a seat shaped for the insertion of a key, said key enabling a rotation of said second rotating body ; - an actuation mechanism mechanically interposed between said second rotating body and said coupling element to transform a rotation of said second rotating body into a displacement of said coupling element from said decoupling position to said coupling position, and/or vice versa, characterized in that said respective axis of rotation of said second rotating body is parallel to, and not coincident with, said axis of rotation of said first rotating body . - a coupling element structured to alternatively assume a coupling position in which it couples said cam with said first rotating body and a decoupling position in which it does not couple said cam with said first rotating body , - a handling body rigidly fixed to said first rotating body for rotating said first rotating body about said axis of rotation ; - a second rotating body rotatably housed in said handling body and having a respective axis of rotation , wherein said second rotating body comprises a seat shaped for the insertion of a key, said key enabling a rotation of said second rotating body ; - an actuation mechanism mechanically interposed between said second rotating body and said coupling element to transform a rotation of said second rotating body into a displacement of said coupling element from said decoupling position to said coupling position, and/or vice versa,
An analytical device comprising: a substrate ; a defining element defining a flow path (R) of a sample; a first pair of electrodes formed on the substrate and located in the flow path (R); a second pair of electrodes formed on the substrate and located downstream of the first pair of electrodes in the flow path (R); and a dropped reagent restricting element formed between the downstream end portion of the first pair of electrodes and an upstream end portion of the second pair of electrodes in the flow path (R), the dropped reagent restricting element being configured to restrict movement of a dropped reagent , wherein the analytical device has been obtained by the following manufacturing steps: the dropped reagent is dropped on the second pair of electrodes , and the dropped reagent is not dropped on the first pair of electrodes , or a different dropped reagent is dropped on the first pair of electrodes , and wherein, in a crosswise direction that crosses an inflow direction of the sample, the dropped reagent restricting element is provided in a central portion of the crosswise direction, and two gaps are provided such that the dropped reagent restricting element is sandwiched between the two gaps. a substrate ; a defining element defining a flow path (R) of a sample; a first pair of electrodes formed on the substrate and located in the flow path (R); a second pair of electrodes formed on the substrate and located downstream of the first pair of electrodes in the flow path (R); and a dropped reagent restricting element formed between the downstream end portion of the first pair of electrodes and an upstream end portion of the second pair of electrodes in the flow path (R), the dropped reagent restricting element being configured to restrict movement of a dropped reagent , wherein the analytical device has been obtained by the following manufacturing steps: the dropped reagent is dropped on the second pair of electrodes , and the dropped reagent is not dropped on the first pair of electrodes , or a different dropped reagent is dropped on the first pair of electrodes , and wherein, in a crosswise direction that crosses an inflow direction of the sample, the dropped reagent restricting element is provided in a central portion of the crosswise direction, and two gaps are provided such that the dropped reagent restricting element is sandwiched between the two gaps.