mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a valve, said method comprising the steps of • locating an operating key system at said valve, • communicating a location of said operating key system wirelessly to a central data system from said operating key system, • communicating a rotational direction to open or close said valve wirelessly from said central data system to said operating key system based on said location, • engaging operating means of said valve by means of an operating key of said operating key system, • rotating said operating key manually towards an open or a closed position of said valve while engaging said operating means based on said received rotational direction to open or close said valve, • detecting the direction in which said operating key is rotated, wherein said direction of rotation is detected by means of rotation direction detection means of said operating key, • detecting if said valve has reached said open or closed position, wherein said open or closed position is detected by means of end position detection means of said operating key, and • communicating said location, said direction of rotation and said open or closed position wirelessly to the central data system from said operating key system. • locating an operating key system at said valve, • communicating a location of said operating key system wirelessly to a central data system from said operating key system, • communicating a rotational direction to open or close said valve wirelessly from said central data system to said operating key system based on said location, • engaging operating means of said valve by means of an operating key of said operating key system, • rotating said operating key manually towards an open or a closed position of said valve while engaging said operating means based on said received rotational direction to open or close said valve, • detecting the direction in which said operating key is rotated, wherein said direction of rotation is detected by means of rotation direction detection means of said operating key, • detecting if said valve has reached said open or closed position, wherein said open or closed position is detected by means of end position detection means of said operating key, and • communicating said location, said direction of rotation and said open or closed position wirelessly to the central data system from said operating key system.
A distribution assembly comprising both a syringe having a body provided with a tip supporting a needle having a bevel, and also a removable syringe needle protection device, said protection device comprising a flexible cap defining an inside cavity defined by a side wall and by a distal end wall, said end wall being solid and, when in the protection position, receiving said bevel of said needle of a syringe in airtight manner, said side wall including an annular bead provided with at least one slot extending across said annular bead in a longitudinal direction, said annular bead, when in the protection position, co-operating in airtight manner with said tip of the syringe, the assembly being characterized in that said cavity of said cap is dimensioned in such a manner that when said protection device is removed from said syringe, said cavity is connected to the atmosphere via said at least one slot before said bevel of the needle becomes connected to said cavity.
Method for controlling a deflection angle of a mobile pitch stabilisation means of an aircraft, characterised in that the said method comprises: - a preliminary phase comprising a compilation step (STP1.2) for compiling at least one control law providing a setpoint angle (100*) that the said deflection angle should reach, as a function on the one hand of at least one flight parameter of the aircraft and on the other hand of an incidence parameter of the pitch stabilisation means, the said incidence parameter being an aerodynamic incidence of the pitch stabilisation means, or a lift force exerted on the said pitch stabilisation means, or a torsional moment measured on a shaft supporting the pitch stabilisation means, - an operational phase during which the following steps are carried out: ∘ determination of a value referred to as the "flight value " of each of the said flight parameters, ∘ determination of a value referred to as the "setpoint value (60*)" of the said incidence parameter, ∘ determination of a setpoint value (100*) by introducing the said flight and setpoint (60*) values into the said control law, ∘ activation of least one actuator so that the said deflection angle of the mobile pitch stabilisation means reaches the said setpoint angle (100*). - a preliminary phase comprising a compilation step (STP1.2) for compiling at least one control law providing a setpoint angle (100*) that the said deflection angle should reach, as a function on the one hand of at least one flight parameter of the aircraft and on the other hand of an incidence parameter of the pitch stabilisation means, the said incidence parameter being an aerodynamic incidence of the pitch stabilisation means, or a lift force exerted on the said pitch stabilisation means, or a torsional moment measured on a shaft supporting the pitch stabilisation means, - an operational phase during which the following steps are carried out: ∘ determination of a value referred to as the "flight value " of each of the said flight parameters, ∘ determination of a value referred to as the "setpoint value (60*)" of the said incidence parameter, ∘ determination of a setpoint value (100*) by introducing the said flight and setpoint (60*) values into the said control law, ∘ activation of least one actuator so that the said deflection angle of the mobile pitch stabilisation means reaches the said setpoint angle (100*). ∘ determination of a value referred to as the "flight value " of each of the said flight parameters, ∘ determination of a value referred to as the "setpoint value (60*)" of the said incidence parameter, ∘ determination of a setpoint value (100*) by introducing the said flight and setpoint (60*) values into the said control law, ∘ activation of least one actuator so that the said deflection angle of the mobile pitch stabilisation means reaches the said setpoint angle (100*).
A polypropylene resin, comprising: at least 50 mol% propylene; an MWD (Mw/Mn) greater than 5; a branching index (g') of at least 0.95, determined as described herein; and a melt strength greater than 20 cN determined, as described herein, using an extensional rheometer at 190°C. at least 50 mol% propylene; an MWD (Mw/Mn) greater than 5; a branching index (g') of at least 0.95, determined as described herein; and a melt strength greater than 20 cN determined, as described herein, using an extensional rheometer at 190°C.
A composite woven fabric (100, 200, 300, 420) for a low profile implantable medical device: comprising a plurality of textile strands of a first material (110, 210, 310, 422) aligned in a first direction (130, 230, 330) interlaced with a plurality of textile strands of a second material (120, 220, 320, 424), where the textile strands have a size between 10 denier to 20 denier (corresponding to 11 to 22 dtex), and where the first material (110, 210, 310, 422) has at least one characteristic different from the second material (120, 220, 320, 422), and where the first material comprises ultra-high molecular weight polyethylene and the second material comprises polyethylene terephthalate.
Sensor cartridge for chemical assays of a liquid sample containing analyte molecules, said sensor cartridge comprising: - a wall having an open top end and a lower end, said wall enclosing a space (5, 6) for containing porous matrix, said open top end being configured for supplying liquid sample containing analyte molecules to the space (5, 6); - a porous collection disk closing the lower end of the wall, said porous collection disk being arranged for supporting and contacting porous matrix; wherein the space (5, 6) contains porous matrix, said porous matrix being configured for passing analyte molecules of a liquid sample therethrough and said porous matrix contacting the porous collection disk; - a base cap attached to the lower end of the wall, said porous collection disk being sandwiched between the lower end of the wall and the base cap; - an air channel extending between a first air opening positioned at the open top end of the wall and a second air opening (10', 10") positioned at a distance above the porous collection disk; - said base cap comprising a base cap air opening (12', 12") positioned opposite the second air opening (10', 10"), said porous collection disk being positioned between the second air opening (10', 10") and the base cap air opening (12', 12"); wherein at least one of the first air opening and the base cap air opening (12', 12") comprises an air source connection for connecting the cartridge to a source of air under supra-atmospheric pressure or a source of subatmospheric pressure; said second air opening (10', 10") and the base cap air opening (12', 12") being arranged to guide an air flow to specific locations of the porous collection disk for providing localized evaporation and analyte concentration. - a wall having an open top end and a lower end, said wall enclosing a space (5, 6) for containing porous matrix, said open top end being configured for supplying liquid sample containing analyte molecules to the space (5, 6); - a porous collection disk closing the lower end of the wall, said porous collection disk being arranged for supporting and contacting porous matrix; - a base cap attached to the lower end of the wall, said porous collection disk being sandwiched between the lower end of the wall and the base cap; - an air channel extending between a first air opening positioned at the open top end of the wall and a second air opening (10', 10") positioned at a distance above the porous collection disk; - said base cap comprising a base cap air opening (12', 12") positioned opposite the second air opening (10', 10"), said porous collection disk being positioned between the second air opening (10', 10") and the base cap air opening (12', 12");
A locking electrical outlet for use with a plug comprising: a housing, the housing defining a front face and having a channel with an outlet latch; a slider configured to move axially relative to the housing within the channel wherein axially is defined as a direction parallel to a direction of an insertion of the plug; a locking plate, the locking plate having an opening; a spring configured to bias the locking plate towards a first angle relative to the front face of the housing, wherein the slider is configured to be moved axially rearward relative to the housing by the insertion of the plug and further wherein the rearward movement of the slider reduces the angle of the locking plate such that it allows a blade of the plug to move through the opening of the locking plate, characterized by further comprising a memory block composed of a slow rebounding compressible material, the memory block configured to be at least partially compressed by the slider such that it allows the slider to engage the outlet latch of the housing and temporarily hold the locking plate at the reduced angle and further wherein an expansion of the memory block disengages the slider from the outlet latch and allows the spring to return locking plate towards the first angle. a housing, the housing defining a front face and having a channel with an outlet latch; a slider configured to move axially relative to the housing within the channel wherein axially is defined as a direction parallel to a direction of an insertion of the plug; a locking plate, the locking plate having an opening; a spring configured to bias the locking plate towards a first angle relative to the front face of the housing, wherein the slider is configured to be moved axially rearward relative to the housing by the insertion of the plug and further wherein the rearward movement of the slider reduces the angle of the locking plate such that it allows a blade of the plug to move through the opening of the locking plate, characterized by further comprising a memory block composed of a slow rebounding compressible material, the memory block configured to be at least partially compressed by the slider such that it allows the slider to engage the outlet latch of the housing and temporarily hold the locking plate at the reduced angle and further wherein an expansion of the memory block disengages the slider from the outlet latch and allows the spring to return locking plate towards the first angle.
An air handling unit (10, 100) for a heating, ventilation, air conditioning, and refrigeration system, the air handling unit (10, 100) comprising: a housing containing a combustion section, the housing including: a first side with a first opening for the combustion section, a top side with a second opening for the combustion section, and a pair of rails (250a, 250b) disposed in the combustion section, and a fan assembly including one or more fans, characterized in that the fan assembly is disposed in the combustion section and includes a pair of grooves (236a, 236b), the pair of grooves (236a, 236b) slidably disposed on the pair of rails (250a, 250b), wherein the fan assembly is configured to be both slidably removable from the AHU (10, 100) through the first opening in the housing and liftably removable from the AHU (10, 100) through the second opening in the housing. a housing containing a combustion section, the housing including: a first side with a first opening for the combustion section, a top side with a second opening for the combustion section, and a pair of rails (250a, 250b) disposed in the combustion section, and a fan assembly including one or more fans, characterized in that the fan assembly is disposed in the combustion section and includes a pair of grooves (236a, 236b), the pair of grooves (236a, 236b) slidably disposed on the pair of rails (250a, 250b), wherein the fan assembly is configured to be both slidably removable from the AHU (10, 100) through the first opening in the housing and liftably removable from the AHU (10, 100) through the second opening in the housing.
A breathing device which comprises: an air inlet (11, 118, 218, 218a); an air outlet (13, 117, 217) through which a user can breathe; a conduit (10, 121, 221, 221a) connecting the air inlet and outlet; a plurality of rotary valves (14, 31, 230, 240) positioned in the conduit (10, 121, 221, 221 a) so that air entering through the air inlet (11, 118, 218, 218a) and inhaled by the user can be interrupted by the rotary valves; and means to vary the frequency of the interruption of the flow of air through the conduit whilst the device is in use; wherein the frequency of interruption of the flow of air can be varied by an adjustable speed control, which once initiated, is arranged for periodic speed variation or for random speed variation; wherein the frequency of the interruptions to the air flow is controlled by the speed of rotation of the valves (14, 31, 230, 240) and there is a control system which can change the speed of rotation of the valves (14, 31, 230, 240) whilst the device is in use characterized in that; the control system incorporates a random number generator which controls the speed of rotation of the valves (14, 31, 230, 240) in accordance with the random numbers. an air inlet (11, 118, 218, 218a); an air outlet (13, 117, 217) through which a user can breathe; a conduit (10, 121, 221, 221a) connecting the air inlet and outlet; a plurality of rotary valves (14, 31, 230, 240) positioned in the conduit (10, 121, 221, 221 a) so that air entering through the air inlet (11, 118, 218, 218a) and inhaled by the user can be interrupted by the rotary valves; and means to vary the frequency of the interruption of the flow of air through the conduit whilst the device is in use; wherein the frequency of interruption of the flow of air can be varied by an adjustable speed control, which once initiated, is arranged for periodic speed variation or for random speed variation; wherein the frequency of the interruptions to the air flow is controlled by the speed of rotation of the valves (14, 31, 230, 240) and there is a control system which can change the speed of rotation of the valves (14, 31, 230, 240) whilst the device is in use
A method for reducing divergence of control flow in a single-instruction-multiple-data processor, the method comprising: at a point of divergent control flow, identifying control flow targets for different execution items of a wavefront, wherein the wavefront is temporally divided into a plurality of time slots for execution; sorting the execution items based on the identified control flow targets to generate sorted execution item groups; reorganizing the execution items of the wavefront by swapping the execution items of the wavefront between the time slots based on the sorted execution item groups such that within a time slot of the time slots more execution items have the same control flow target than without the reorganizing, wherein execution items of the same group are reorganized into the same time slot; and executing the wavefront after the point of divergent control flow based on the reorganized execution items. at a point of divergent control flow, identifying control flow targets for different execution items of a wavefront, wherein the wavefront is temporally divided into a plurality of time slots for execution; sorting the execution items based on the identified control flow targets to generate sorted execution item groups; reorganizing the execution items of the wavefront by swapping the execution items of the wavefront between the time slots based on the sorted execution item groups such that within a time slot of the time slots more execution items have the same control flow target than without the reorganizing, wherein execution items of the same group are reorganized into the same time slot; and executing the wavefront after the point of divergent control flow based on the reorganized execution items.
A fixed wing unmanned aerial vehicle having a plurality of components, comprising: a failure detection system configured to detect faults in one or more of the plurality of components; a capability evaluation system communicatively coupled to the failure detection system, the capability evaluation system configured to determine a capability level of the fixed wing unmanned aerial vehicle based upon the faults in the one or more of the plurality of components; and a trajectory generation system communicatively coupled to the failure detection system and the capability evaluation system, the trajectory generation system configured to generate a touch down trajectory for the fixed wing unmanned aerial vehicle based upon the determined capability level of the fixed wing unmanned aerial vehicle, wherein when the determined capability level is below a predetermined threshold, the touch down trajectory comprising a stall maneuver configured to minimize a lateral energy of the fixed wing unmanned aerial vehicle. a failure detection system configured to detect faults in one or more of the plurality of components; a capability evaluation system communicatively coupled to the failure detection system, the capability evaluation system configured to determine a capability level of the fixed wing unmanned aerial vehicle based upon the faults in the one or more of the plurality of components; and a trajectory generation system communicatively coupled to the failure detection system and the capability evaluation system, the trajectory generation system configured to generate a touch down trajectory for the fixed wing unmanned aerial vehicle based upon the determined capability level of the fixed wing unmanned aerial vehicle, wherein when the determined capability level is below a predetermined threshold, the touch down trajectory comprising a stall maneuver configured to minimize a lateral energy of the fixed wing unmanned aerial vehicle.
A method of knitting including the steps of: using a knitting machine having a first feeder that dispenses a yarn, a second feeder that dispenses a strand, and a needle bed that includes a plurality of needles; moving the first feeder along the needle bed to form a first course of a knit component from the yarn; moving the first feeder and the second feeder along the needle bed to (a) form a second course of the knit component from the yarn and (b) inlay the strand into the knit component, where a dispensing tip of the second feeder is located below a dispensing tip of the first feeder; the method being characterized by therefor reciprocating a position of the dispensing tip of the second feeder from a position that is on one side of an area where the needles cross each other to an opposite side of the area where the needles cross each other. using a knitting machine having a first feeder that dispenses a yarn, a second feeder that dispenses a strand, and a needle bed that includes a plurality of needles; moving the first feeder along the needle bed to form a first course of a knit component from the yarn; moving the first feeder and the second feeder along the needle bed to (a) form a second course of the knit component from the yarn and (b) inlay the strand into the knit component, where a dispensing tip of the second feeder is located below a dispensing tip of the first feeder; the method being characterized by therefor reciprocating a position of the dispensing tip of the second feeder from a position that is on one side of an area where the needles cross each other to an opposite side of the area where the needles cross each other.
A polymer comprising greater than or equal to 70 wt% units derived from ethylene, units derived from propylene which are present in the polymer in an amount of less than or equal to 30 wt%, and less than 5 wt% of units derived from C 4 -C 20 alpha-olefins, and having the following properties: a. crystallinity derived from ethylene; b. a heat of fusion of 20 to 85 J/g; c. a polydispersity index (Mw/Mn) of less than 2.5; d. a reactivity ratio of 0.5 to 1.5; e. a proportion of inversely inserted propylene units based on 2, 1 insertion of propylene monomer in all propylene insertions, as measured by 13 C NMR of less than 0.5 wt%; and f. a branching index greater than 0.5. a. crystallinity derived from ethylene; b. a heat of fusion of 20 to 85 J/g; c. a polydispersity index (Mw/Mn) of less than 2.5; d. a reactivity ratio of 0.5 to 1.5; e. a proportion of inversely inserted propylene units based on 2, 1 insertion of propylene monomer in all propylene insertions, as measured by 13 C NMR of less than 0.5 wt%; and f. a branching index greater than 0.5.