mhurhangee/ep-ind-claims huggingface dataset:
Installation for administering gas to a patient, comprising: - at least one source of therapeutic gas containing NO, - a therapeutic-gas supply device, supplied with therapeutic gas by said at least one source of therapeutic gas, and - a gas supply line supplied with therapeutic gas by the therapeutic-gas supply device, and - a medical ventilator in fluidic communication with the gas supply line to supply said supply line with air or with an N 2 /O 2 mixture, and wherein the therapeutic-gas supply device comprises: - an internal passage for conveying a flow of therapeutic gas between a gas inlet and a gas outlet, - valve means for controlling the flow of therapeutic gas in the internal passage, - control means comprising at least a microprocessor and configured to control at least the valve means, - a graphic display configured to display choices (9a-9d) that can be selected by a user, and - selection means comprising selection keys, configured for making a selection from among the selectable choices (9a-9d) displayed on the graphic display, characterized in that the control means are configured to count a total number of patients treated by administration of the therapeutic gas from the selection, by a user, via the selection means, of a first given choice corresponding to the start of a treatment by administering the therapeutic gas to a patient concerned, said count of the total number of patients treated being performed by incrementing a patients counter. - at least one source of therapeutic gas containing NO, - a therapeutic-gas supply device, supplied with therapeutic gas by said at least one source of therapeutic gas, and - a gas supply line supplied with therapeutic gas by the therapeutic-gas supply device, and - a medical ventilator in fluidic communication with the gas supply line to supply said supply line with air or with an N 2 /O 2 mixture, - an internal passage for conveying a flow of therapeutic gas between a gas inlet and a gas outlet, - valve means for controlling the flow of therapeutic gas in the internal passage, - control means comprising at least a microprocessor and configured to control at least the valve means, - a graphic display configured to display choices (9a-9d) that can be selected by a user, and - selection means comprising selection keys, configured for making a selection from among the selectable choices (9a-9d) displayed on the graphic display,
A system comprising: means for determining an efficacy threshold value of at least one electrical stimulation parameter based on a first volume of tissue activation expected to result from delivery of electrical stimulation by at least one electrode to a patient; and means for determining an adverse-effects threshold value of the at least one stimulation parameter based on second volume of tissue activation expected to result from delivery of electrical stimulation by the at least one electrode to the patient. means for determining an efficacy threshold value of at least one electrical stimulation parameter based on a first volume of tissue activation expected to result from delivery of electrical stimulation by at least one electrode to a patient; and means for determining an adverse-effects threshold value of the at least one stimulation parameter based on second volume of tissue activation expected to result from delivery of electrical stimulation by the at least one electrode to the patient.
A method for acquiring, positioning and tracking of vehicles travelling in airspace, sea and land travel routes via a constellation of small satellites, the method comprising: (a) detecting a first signal from a vehicle travelling along a vehicle travel path; (b) detecting an anomaly from the first signal; (c) determining whether the anomaly occurs (i) inside a first radar mode coverage area or (ii) outside the first radar mode coverage area; (d) activating (i) a first radar mode if the anomaly occurs inside the first radar mode coverage area for detecting a second signal from the vehicle or (ii) a second radar mode if the anomaly occurs outside the first radar mode coverage area for detecting a third signal from the vehicle for positioning the vehicle independently; (e) cueing a third radar mode by the first or the second radar mode to (i) refine the second signal, or (ii) refine the third signal from the vehicle, wherein the steps of (a), (b), (c), (d) and (e) are sequentially performed by each satellite in the constellation of small satellites. (a) detecting a first signal from a vehicle travelling along a vehicle travel path; (b) detecting an anomaly from the first signal; (c) determining whether the anomaly occurs (i) inside a first radar mode coverage area or (ii) outside the first radar mode coverage area; (d) activating (i) a first radar mode if the anomaly occurs inside the first radar mode coverage area for detecting a second signal from the vehicle or (ii) a second radar mode if the anomaly occurs outside the first radar mode coverage area for detecting a third signal from the vehicle for positioning the vehicle independently; (e) cueing a third radar mode by the first or the second radar mode to (i) refine the second signal, or (ii) refine the third signal from the vehicle,
A process for making flour, comprising: (i) combining a wet-milled whole corn fraction composed of endosperm, germ and aleurone-bran with at least one enzyme selected from the group consisting of an endoamylase and endoxylanase, to produce an enzyme-added fraction; (ii) moist-heat precooking said enzyme-added fraction to obtain a pre-cooked enzyme-added fraction; (iii) high-solid conditioning said precooked enzyme-added fraction to partially hydrolyze starchy endosperm and aleurone-bran granules to produce acidic xylooligosaccahrides in enzymatically conditioned corn kernel particles; and (iv) milling said conditioned corn kernel particles to obtain flour. (i) combining a wet-milled whole corn fraction composed of endosperm, germ and aleurone-bran with at least one enzyme selected from the group consisting of an endoamylase and endoxylanase, to produce an enzyme-added fraction; (ii) moist-heat precooking said enzyme-added fraction to obtain a pre-cooked enzyme-added fraction; (iii) high-solid conditioning said precooked enzyme-added fraction to partially hydrolyze starchy endosperm and aleurone-bran granules to produce acidic xylooligosaccahrides in enzymatically conditioned corn kernel particles; and (iv) milling said conditioned corn kernel particles to obtain flour.
A sole structure for an article of footwear, comprising: a U-shaped chassis member including a lateral side arm, a rear heel portion, and a medial side arm, wherein the U-shaped chassis member includes an opening extending between ends of the medial side arm and the lateral side arm; an impact-attenuating member engaged with the U-shaped chassis member, wherein the impact-attenuating member includes a lateral side arm and a medial side arm that extend toward a forefoot portion of the sole structure, wherein the impact-attenuating member further includes a rear heel portion joining the lateral and medial side arms thereof, and wherein a groove is defined in a bottom surface of the impact-attenuating member between a medial side and a lateral side of the impact-attenuating member; and a first outsole element extending beneath the bottom surface of the impact-attenuating member, wherein the first outsole element extends around the rear heel portion of the impact-attenuating member and engages the rear heel portion of the U-shaped chassis member, and wherein the first outsole element includes a groove aligned with the groove of the bottom surface of the impact-attenuating member. a U-shaped chassis member including a lateral side arm, a rear heel portion, and a medial side arm, wherein the U-shaped chassis member includes an opening extending between ends of the medial side arm and the lateral side arm; an impact-attenuating member engaged with the U-shaped chassis member, wherein the impact-attenuating member includes a lateral side arm and a medial side arm that extend toward a forefoot portion of the sole structure, wherein the impact-attenuating member further includes a rear heel portion joining the lateral and medial side arms thereof, and wherein a groove is defined in a bottom surface of the impact-attenuating member between a medial side and a lateral side of the impact-attenuating member; and a first outsole element extending beneath the bottom surface of the impact-attenuating member, wherein the first outsole element extends around the rear heel portion of the impact-attenuating member and engages the rear heel portion of the U-shaped chassis member, and wherein the first outsole element includes a groove aligned with the groove of the bottom surface of the impact-attenuating member.
A train control device that sets a pattern of maximum speed according to a distance to a stopping point and outputs a braking command when a train speed exceeds the maximum speed, characterized in that an emergency brake pattern and a regular brake pattern are set as patterns of the maximum speed, the regular brake pattern having a stopping point nearer than a stopping point of the emergency brake pattern, and the stopping point in the regular brake pattern is changed to a farther point within a range not to be beyond the stopping point of the emergency brake pattern in a middle of reducing the maximum speed of the regular brake pattern.
A rotor for a gas turbine engine comprising: a hub having an outer periphery; characterised by further comprising: a first plurality of blades welded to the outer periphery of the hub, the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub, the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium. a hub having an outer periphery; characterised by further comprising: a first plurality of blades welded to the outer periphery of the hub, the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub, the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium. a first plurality of blades welded to the outer periphery of the hub, the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub, the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium.
An isolated cell population, comprising at least four subpopulations of muscle progenitor cells, each of the at least four subpopulation being distinct in that they are genetically modified to express a different neurotrophic factor, wherein the neurotrophic factor is selected from the group consisting of glial derived neurotrophic factor (GDNF), insulin growth factor (IGF-1), vascular endothelial growth factor (VEGF) and brain-derived neurotrophic factor (BDNF).
A process for upgrading pyrolysis oil, comprising the steps of a) heating said pyrolysis oil in the absence of added catalyst at 100°C to 150°C temperature and 50 bar to 250 bar pressure, and b) heating the product of step a) in the absence of added catalyst at 200°C to 400°C temperature and 50 bar to 250 bar pressure. a) heating said pyrolysis oil in the absence of added catalyst at 100°C to 150°C temperature and 50 bar to 250 bar pressure, and b) heating the product of step a) in the absence of added catalyst at 200°C to 400°C temperature and 50 bar to 250 bar pressure.
A hood locking device, comprising a locking mechanism, wherein the locking mechanism includes two latches (20, 21), the two latches (20, 21) are configured to fix an engine hood at a closed position by latching a striker included with the engine hood (20, 21) of a vehicle and unfix the engine hood by releasing the striker, one of the two latches (20, 21) includes one of a projection and a recess and the other one of the two latches (20, 21) includes the other one of the projection and the recess, wherein the projection and the recess form a fitting portion and the projection is fitted to the recess, the two latches (20, 21) are pivotally supported by a base plate fixed to the vehicle and configured such that latching directions of the two latches (20, 21) for the striker are opposite to each other, characterized in that one of the two latches (20, 21) includes a right-hand-drive operation cable attachment portion and the other one of the two latches (20, 21) includes a left-hand-drive operation cable attachment portion. the locking mechanism includes two latches (20, 21), the two latches (20, 21) are configured to fix an engine hood at a closed position by latching a striker included with the engine hood (20, 21) of a vehicle and unfix the engine hood by releasing the striker, one of the two latches (20, 21) includes one of a projection and a recess and the other one of the two latches (20, 21) includes the other one of the projection and the recess, wherein the projection and the recess form a fitting portion and the projection is fitted to the recess, the two latches (20, 21) are pivotally supported by a base plate fixed to the vehicle and configured such that latching directions of the two latches (20, 21) for the striker are opposite to each other, characterized in that one of the two latches (20, 21) includes a right-hand-drive operation cable attachment portion and the other one of the two latches (20, 21) includes a left-hand-drive operation cable attachment portion.
A method of cleaning a condensing apparatus of a laundry dryer, wherein the condensing apparatus comprises an air passage, a water supply apparatus connected to the air passage, and a fan that enables air from a drying drum (5, 6) to pass through the air passage, wherein the air passage has a turbulence apparatus (30, 31, 32) that enables the air passing through the air passage to generate a turbulent flow, a water outlet of the water supply apparatus is located above the turbulence apparatus (30, 31, 32), and the fan is controlled by a control apparatus adapted to run a drying program, wherein the turbulence apparatus (30, 31, 32) is a blocking member that extends from an air passage wall of the air passage into an interior of the passage to change a flowing path of a blocked air flow, or a deformation (30, 31) of the air passage wall in an air flowing direction or of a flowing sectional area, wherein the method comprises running a cleaning process, and the cleaning process comprises: continuously supplying, by the water supply apparatus, water into the air passage; and enabling, by the control apparatus, the fan to run, controlling a running parameter of the fan to gradually increase a rotation speed of the fan, and at least increasing the rotation speed until partially water is lifted by air and gradually converges at the turbulence apparatus (30, 31, 32) to flush the air passage wall, charcterized in that the cleaning process is integrated into the drying program. continuously supplying, by the water supply apparatus, water into the air passage; and enabling, by the control apparatus, the fan to run, controlling a running parameter of the fan to gradually increase a rotation speed of the fan, and at least increasing the rotation speed until partially water is lifted by air and gradually converges at the turbulence apparatus (30, 31, 32) to flush the air passage wall, charcterized in that the cleaning process is integrated into the drying program.
A method for forming a liquid composite material, the method comprising: combining a first component element with a second component element to form a liquid composite mixture, the first component element comprising a liquid thermosetting polymer and the second component element comprising a filler; subjecting the liquid composite mixture to a first force on a rotating surface to form liquid ligaments and disperse the first component element and second component element in relation to each other within the liquid ligaments, wherein the first force is a mechanical force; subjecting the liquid ligaments to at least one second force to form attenuated liquid ligaments and further disperse the first component element and second component element in relation to each other within the attenuated liquid ligaments, wherein the at least one second force imparts both shear flow deformation and extensional flow deformation to the liquid ligaments to form the attenuated liquid ligaments; and collecting the attenuated liquid ligaments on a collection surface, the attenuated liquid ligaments coalescing on the collection surface to form a well-dispersed heterogeneous bulk material as the liquid composite material. combining a first component element with a second component element to form a liquid composite mixture, the first component element comprising a liquid thermosetting polymer and the second component element comprising a filler; subjecting the liquid composite mixture to a first force on a rotating surface to form liquid ligaments and disperse the first component element and second component element in relation to each other within the liquid ligaments, wherein the first force is a mechanical force; subjecting the liquid ligaments to at least one second force to form attenuated liquid ligaments and further disperse the first component element and second component element in relation to each other within the attenuated liquid ligaments, wherein the at least one second force imparts both shear flow deformation and extensional flow deformation to the liquid ligaments to form the attenuated liquid ligaments; and collecting the attenuated liquid ligaments on a collection surface, the attenuated liquid ligaments coalescing on the collection surface to form a well-dispersed heterogeneous bulk material as the liquid composite material.
A monitoring circuit communicatively coupled to a fiber optic current transducer, said monitoring circuit comprising: a component for receiving at the fiber optic current transducer polarised light from a fiber optic current sensor; a component for generating an electrical signal based on the polarised light; a component for isolating a DC signal from the fiber optic current transducer, wherein the DC signal is a DC component of the electrical signal generated based on the polarized light received from the fiber optic current sensor; and a component for receiving the DC component in the monitoring circuit; the monitoring circuit being configured to generate and output signal based on the DC signal, wherein the output signal is indicative of an operational state of the fiber optic current sensor and the fiber optic current transducer. a component for receiving at the fiber optic current transducer polarised light from a fiber optic current sensor; a component for generating an electrical signal based on the polarised light; a component for isolating a DC signal from the fiber optic current transducer, wherein the DC signal is a DC component of the electrical signal generated based on the polarized light received from the fiber optic current sensor; and a component for receiving the DC component in the monitoring circuit; the monitoring circuit being configured to generate and output signal based on the DC signal, wherein the output signal is indicative of an operational state of the fiber optic current sensor and the fiber optic current transducer.
A display apparatus for displaying a 3D image, a depth adjusting unit which is arranged to adjust a depth of the 3D image by changing a distance between left and right eye images of the 3D image by applying a depth adjusting value, wherein the depth adjusting unit is configured to adjust the depth of the 3D image according to a user's manual input, the depth adjusting value being determined based on the user's manual input; an OSD inserting unit which, when an OSD menu is to be displayed, is arranged to generate and insert the OSD menu into the 3D image, wherein the OSD menu is used by a user to set a function of the display apparatus; wherein the depth adjusting unit is arranged to adjust the 3D image with the OSD menu inserted therein received from the OSD inserting unit; and a controlling unit which is arranged to receive the depth adjusting value from the depth adjusting unit, and to control the OSD inserting unit to insert the OSD menu into the 3D image by inversely applying the depth adjusting value to the OSD menu, whereby a depth of the OSD menu is maintained to be displayed on a screen at a specific depth, regardless of a change in the depth of the 3D image even though the depth of the 3D image is adjusted by the depth adjusting unit.
A controlled lamp device comprising a lamp housing with a light exit opening, a sensor unit for detecting a contactless manual intervention (15, 16-1, 16-2, 17) of an operator of the lamp device in an intervention region (5, 5-1, 5-2), and an evaluation and control device for evaluating the intervention of the operator detected by the sensor unit and for influencing a control parameter for the operation of the lamp device depending on a result of the evaluation, wherein the sensor unit is provided in and/or on the lamp housing laterally adjacent to the light exit opening, the evaluation and control device is designed such that it influences the control parameter if the evaluation carried out by the evaluation and control device shows that a predefined path in an intervention region has been covered in a gesture-like manner during the intervention of the operator; and the control parameter for the operation of the lamp device influences at least one operating state of the lamp device, which is selected from the group of a lamp activation, a light intensity of the light emitted by the lamp device, a color value of the light emitted by the lamp device, and combinations of these, characterized in that the evaluation and control device is designed such that it influences the control parameter if the evaluation carried out by the evaluation and control device shows that during the intervention of the operator the predefined path in the intervention region has been covered in a gesture-like manner with a predefined velocity characteristic, and that the predefined path defines a spatial sub-region within the intervention region, in which the gesture executed by the operator must be located, in order for the evaluation and control device to influence the control parameter.