mhurhangee/ep-ind-claims huggingface dataset:
A method for preventing active ingredient particles from agglomerating in a suspension; the suspension containing an active ingredient and silicone oil and/or silicone oil derivative in a dispersion medium; the active ingredient being at least one member selected from the group consisting of aripiprazole and a compound represented by structural formula: the active ingredient being in a form of particles having a mean primary particle size of 0.1 μm or larger and smaller than 200 μm; the method comprising mixing the active ingredient with the silicone oil and/or silicone oil derivative in a dispersion medium, in such a manner that the silicone oil and/or silicone oil derivative is contained in an amount of 0.001 to 0.2 weight parts relative to 100 weight parts of the active ingredient contained in the suspension; wherein the silicone oil derivative is one in which the substituent on side chain of the silicone oil, and/or some of the terminal Si substituents are replaced with a polyoxyalkylene group or a vinyl group.
A tool which can be mounted on a first satellite for opening an access component of a second satellite, the access component on the second satellite having rotatable and static features coaxially aligned along a first axis, comprising: a housing (101, 102, 103) including a motor mounted in said housing (101, 102, 103), a gear shifter coupled to said motor; an adjustable wrench mechanism mounted in said housing (101, 102, 103) including at least first and second adjustable wrenches coaxially aligned one on top of the other along a second axis, each of said at least first and second adjustable wrenches being configured to engage the access component with features of different sizes; a differential gearbox mounted in said housing (101, 102, 103) coupled to said at least first and second adjustable wrenches, the gearbox being configured to split the torque received by the gear shifter evenly between said at least first and second adjustable wrenches; and wherein, when the tool is positioned with the adjustable wrench mechanism down over; the access component with the second axis coincident with the first axis, one of said at least two adjustable wrenches is configured to engage the rotatable feature of the access component and the other of said at least two adjustable wrenches is configured to engage the static feature of the access component such that the adjustable wrench mechanism applies equal and opposite forces to the rotatable feature and the static feature to apply bi-directional torque to the rotatable feature while reacting the torque on the static feature. a motor mounted in said housing (101, 102, 103), a gear shifter coupled to said motor; an adjustable wrench mechanism mounted in said housing (101, 102, 103) including at least first and second adjustable wrenches coaxially aligned one on top of the other along a second axis, each of said at least first and second adjustable wrenches being configured to engage the access component with features of different sizes; a differential gearbox mounted in said housing (101, 102, 103) coupled to said at least first and second adjustable wrenches, the gearbox being configured to split the torque received by the gear shifter evenly between said at least first and second adjustable wrenches; and wherein, when the tool is positioned with the adjustable wrench mechanism down over; the access component with the second axis coincident with the first axis, one of said at least two adjustable wrenches is configured to engage the rotatable feature of the access component and the other of said at least two adjustable wrenches is configured to engage the static feature of the access component such that the adjustable wrench mechanism applies equal and opposite forces to the rotatable feature and the static feature to apply bi-directional torque to the rotatable feature while reacting the torque on the static feature.
Medical data transmission system comprising a first device which is designed to be worn on the body by a patient and which generates medically relevant data when in operation, said data being transmitted to a second device in a wireless manner, wherein the first device comprises a communication unit for wireless communication with the second device, a circuit (3, 5) which, in operation, generates medically relevant data, and a handover memory for intermediate storage of data that are to be transmitted from the circuit (3, 5) to the communication unit or from the communication unit to the circuit (3, 5), and wherein the data-generating circuit (3, 5) is connected to the handover memory via a first data line and the communication unit is connected to the handover memory via a second data line, wherein the first device contains a changeover switch configured to close the first data line and interrupt the second data line in a first switching state, and to interrupt the first data line and to close the second data line in a second switching state, and the changeover switch is a mechanical or an electronic switch, characterized in that the changeover switch is arranged in the first data line, data are exchanged between the data-generating circuit (3, 5) and the communication unit only via the handover memory, the communication unit is connected to the changeover switch via a control line, and the data transmission system being configured to actuate the changeover switch by means of this control line exclusively from a microprocessor contained in the communication unit in order to thereby switch between the first and the second switching state.
A sweat sensor device for sensing sweat on the skin comprising: one or more solute-specific sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4); and a volume-reducing component (460, 470, 570, 670, 672, 890, 1170, 1385, 1560, 1570, 1670, 1770) that provides a volume-reduced pathway for sweat between the one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4) and sweat glands when said device is positioned on said skin, wherein one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4) has a sampling interval when sensing sweat and the volume-reduced pathway decreases the sampling interval of the one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4), wherein the volume-reducing component (460, 470, 570, 670, 672, 890, 1170, 1385, 1560, 1570, 1670, 1770) is a volume-reducing material; and characterised in that the volume-reducing material is configured to self-align with sweat pores and/or is configured to be displaceable by sweat to form part of the volume-reduced pathway within the volume reducing material. one or more solute-specific sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4); and a volume-reducing component (460, 470, 570, 670, 672, 890, 1170, 1385, 1560, 1570, 1670, 1770) that provides a volume-reduced pathway for sweat between the one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4) and sweat glands when said device is positioned on said skin, wherein one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4) has a sampling interval when sensing sweat and the volume-reduced pathway decreases the sampling interval of the one or more sweat sensors (420, 520, 620, 801, 1120, 1301, 1520, 1721-4), wherein the volume-reducing component (460, 470, 570, 670, 672, 890, 1170, 1385, 1560, 1570, 1670, 1770) is a volume-reducing material; and characterised in that the volume-reducing material is configured to self-align with sweat pores and/or is configured to be displaceable by sweat to form part of the volume-reduced pathway within the volume reducing material.
A polyurethane dispersion for forming a gas barrier layer in which polyurethane resin produced by reaction of an isocyanate group-terminated prepolymer with a chain extender is dispersed in water, wherein the isocyanate group-terminated prepolymer is produced by at least allowing a polyisocyanate component containing xylylene diisocyanate and/or hydrogenated xylylene diisocyanate to react with a polyol component containing alkanediol having 2 to 6 carbon atoms, a low-molecular-weight polyol having a functionality of three or more, and an active hydrogen group-containing compound containing a hydrophilic group; the chain extender contains an alkoxysilyl compound having a primary amino group, or a primary amino group and a secondary amino group; and the molar ratio of the hydroxyl group in the low-molecular-weight polyol having a functionality of three or more is less than 25% relative to the total mol 100% of the hydroxyl group in the polyol component. wherein the isocyanate group-terminated prepolymer is produced by at least allowing a polyisocyanate component containing xylylene diisocyanate and/or hydrogenated xylylene diisocyanate to react with a polyol component containing alkanediol having 2 to 6 carbon atoms, a low-molecular-weight polyol having a functionality of three or more, and an active hydrogen group-containing compound containing a hydrophilic group; the chain extender contains an alkoxysilyl compound having a primary amino group, or a primary amino group and a secondary amino group; and the molar ratio of the hydroxyl group in the low-molecular-weight polyol having a functionality of three or more is less than 25% relative to the total mol 100% of the hydroxyl group in the polyol component.
A fault detection method for a speed sensing system of a multi-engine rotorcraft having at least one rotor, the method comprising: obtaining a shaft speed for a first engine of the multi-engine rotorcraft and a rotor speed for the at least one rotor; comparing the shaft speed to the rotor speed; when the shaft speed is greater than the rotor speed, detecting a first fault in the speed sensing system and issuing a first speed sensing system fault signal; and when the shaft speed is less than the rotor speed: determining whether the first engine is coupled to the at least one rotor based on a fuel flow to the first engine; and detecting a second fault in the speed sensing system and issuing a second speed sensing system fault signal responsive to determining that the first engine is coupled to the at least one rotor. obtaining a shaft speed for a first engine of the multi-engine rotorcraft and a rotor speed for the at least one rotor; comparing the shaft speed to the rotor speed; when the shaft speed is greater than the rotor speed, detecting a first fault in the speed sensing system and issuing a first speed sensing system fault signal; and when the shaft speed is less than the rotor speed: determining whether the first engine is coupled to the at least one rotor based on a fuel flow to the first engine; and detecting a second fault in the speed sensing system and issuing a second speed sensing system fault signal responsive to determining that the first engine is coupled to the at least one rotor. determining whether the first engine is coupled to the at least one rotor based on a fuel flow to the first engine; and detecting a second fault in the speed sensing system and issuing a second speed sensing system fault signal responsive to determining that the first engine is coupled to the at least one rotor.
A device for sensing respiration of a living being, comprising: an active transmitter configured to generate a magnetic or electromagnetic field; a sensor arranged on the torso of the living being and configured to provide a signal which depends on the magnetic or electromagnetic field and on a change in distance, caused by the respiration of the living being, between the active transmitter and the sensor; and a first means and a second means, the first means and the second means being configured and connected to each other in such a manner, and the active transmitter being arranged in or on the first means in such a manner, and the sensor being arranged in or on the second means in such a manner, that the active transmitter and the sensor are arranged on opposite sides of the torso, irrespectively of a turn of the torso of the living being. an active transmitter configured to generate a magnetic or electromagnetic field; a sensor arranged on the torso of the living being and configured to provide a signal which depends on the magnetic or electromagnetic field and on a change in distance, caused by the respiration of the living being, between the active transmitter and the sensor; and a first means and a second means, the first means and the second means being configured and connected to each other in such a manner, and the active transmitter being arranged in or on the first means in such a manner, and the sensor being arranged in or on the second means in such a manner, that the active transmitter and the sensor are arranged on opposite sides of the torso, irrespectively of a turn of the torso of the living being.
An apparatus for collecting blood in a container and connecting to intravenous tubing, comprising: a main body (121.1) defining an interior and including a collection cavity adapted and configured to receive therein an end of a readily separable container; a first retractable hollow needle having a first sharp tip, said first needle being movable from a first extended position in which the first sharp tip is exterior to said main body for insertion into a blood vessel to a second retracted position in which the first sharp tip is within a portion of the interior; a second hollow needle attached to said main body and having a second sharp tip extending into the collection cavity; a catheter assembly having a body and a hollow lumen and receiving said first needle within the lumen, the first sharp tip extending from the distal end of the lumen; and a gas purging valve supported by said main body that permits the escape of gas contained in a fluid flowpath from said first needle to said second needle; wherein said first needle is readily separable from said catheter assembly, said first needle automatically retracting to the second position in response to separating said first needle from said catheter assembly, and the collection cavity maintains a fixed relationship relative to the portion of the interior in both the first position and the second position. a main body (121.1) defining an interior and including a collection cavity adapted and configured to receive therein an end of a readily separable container; a first retractable hollow needle having a first sharp tip, said first needle being movable from a first extended position in which the first sharp tip is exterior to said main body for insertion into a blood vessel to a second retracted position in which the first sharp tip is within a portion of the interior; a second hollow needle attached to said main body and having a second sharp tip extending into the collection cavity; a catheter assembly having a body and a hollow lumen and receiving said first needle within the lumen, the first sharp tip extending from the distal end of the lumen; and a gas purging valve supported by said main body that permits the escape of gas contained in a fluid flowpath from said first needle to said second needle; wherein said first needle is readily separable from said catheter assembly, said first needle automatically retracting to the second position in response to separating said first needle from said catheter assembly, and the collection cavity maintains a fixed relationship relative to the portion of the interior in both the first position and the second position.
A reel assembly for tightening an article comprising: a spool housing having an interior region; a spool rotatably positioned within the interior region of the spool housing, the spool being configured for gathering a tension member there around to tighten the article; a drive component positioned axially above the spool and operably coupled therewith to allow the spool to rotate in a first direction within the spool housing's interior region while preventing rotation of the spool in a second direction; and a tightening component being a knob positioned axially above the drive component and coupled therewith such that operation of the tightening component causes the spool to rotate within the spool housing's interior region in the first direction to gather the tension member around the spool and thereby tighten the article; wherein when the reel assembly is assembled, the spool is substantially positioned within the interior region, and wherein the knob includes one or more flange portions that protrude radially inward from an outer edge of the knob, wherein the flange portions are configured to flex and slide over an annular ridge of the spool housing as the knob is pressed axially downward relative to spool housing to prevent the knob from uncoupling from the spool housing and wherein the drive component is a pawl disc, characterized in that said pawl disc rests and is axially above a partition of the spool housing that divides the spool housing's interior region into an upper and lower portion. a spool housing having an interior region; a spool rotatably positioned within the interior region of the spool housing, the spool being configured for gathering a tension member there around to tighten the article; a drive component positioned axially above the spool and operably coupled therewith to allow the spool to rotate in a first direction within the spool housing's interior region while preventing rotation of the spool in a second direction; and a tightening component being a knob positioned axially above the drive component and coupled therewith such that operation of the tightening component causes the spool to rotate within the spool housing's interior region in the first direction to gather the tension member around the spool and thereby tighten the article; wherein when the reel assembly is assembled, the spool is substantially positioned within the interior region, and wherein the knob includes one or more flange portions that protrude radially inward from an outer edge of the knob, wherein the flange portions are configured to flex and slide over an annular ridge of the spool housing as the knob is pressed axially downward relative to spool housing to prevent the knob from uncoupling from the spool housing and wherein the drive component is a pawl disc, characterized in that said pawl disc rests and is axially above a partition of the spool housing that divides the spool housing's interior region into an upper and lower portion.
A method for determining a channel state performed at a user device, UE, of a radio access network, comprising: • determining (S11, S21) one or a plurality of subframes to be used for channel state measurements, • performing (S12, S22) a plurality of signal power measurements associated each to one of the subframes to be used for channel state measurement, and • generating a channel state information as a function of the plurality of the signal power measurements, characterized in that • the one or the plurality of subframes to be used for channel state measurement are determined by detecting that a power difference between an estimated received signal power and a measured received power associated of the respective subframes does not exceed a certain power threshold. • determining (S11, S21) one or a plurality of subframes to be used for channel state measurements, • performing (S12, S22) a plurality of signal power measurements associated each to one of the subframes to be used for channel state measurement, and • generating a channel state information as a function of the plurality of the signal power measurements, characterized in that • the one or the plurality of subframes to be used for channel state measurement are determined by detecting that a power difference between an estimated received signal power and a measured received power associated of the respective subframes does not exceed a certain power threshold.
A mass spectrometry method, comprising: heating a sample by a heating device to generate a gas; producing an ion from the gas generated during the heating, by a DART ion source; and introducing the ion into a mass spectrometer; the mass spectrometry method being characterized in that: the heating of the sample includes applying a voltage to a resistance heating wire; and the heating of the sample further includes putting the sample into a pot wrapped with the resistance heating wire. heating a sample by a heating device to generate a gas; producing an ion from the gas generated during the heating, by a DART ion source; and introducing the ion into a mass spectrometer; the mass spectrometry method being characterized in that: the heating of the sample includes applying a voltage to a resistance heating wire; and the heating of the sample further includes putting the sample into a pot wrapped with the resistance heating wire. the heating of the sample includes applying a voltage to a resistance heating wire; and the heating of the sample further includes putting the sample into a pot wrapped with the resistance heating wire.
Plant for the treatment of sludge coming from sewage purification processes, comprising: • a sludge reception stage, for storing the sludge for a predetermined time, • a sludge thermal drying stage, for removing moisture from said sludge, • a thermal exploitation stage, for burning the sludge, • an electric energy production stage operating in a cogenerative ORC cycle, for transforming the thermal energy produced in said thermal exploitation stage into electric energy, wherein said thermal exploitation stage comprises a system for feeding a combustion section consisting of a rotary drum or a grid or a fluid bed, and a recovery boiler using a diathermal oil downstream said thermal exploitation stage for transporting said thermal energy to the electric energy production stage through heating said diathermal oil in the thermal exploitation stage, the plant comprises a thermal recovery unit associated with said thermal exploitation stage and with said electric energy production stage, said thermal recovery unit comprising a hot water, or equivalent heating fluid, circuit that connects said electric energy production stage to the sludge thermal drying stage, so that the heating fluid is heated by the heat discharged by the power cycle during the condensing phase in said electric energy production stage, and is made available in fully recovered form for use in the sludge thermal drying stage, wherein said thermal drying stage comprises at least one belt-type thermal dryer operating at low temperature, which uses said hot water circuit as a heat source. • a sludge reception stage, for storing the sludge for a predetermined time, • a sludge thermal drying stage, for removing moisture from said sludge, • a thermal exploitation stage, for burning the sludge, • an electric energy production stage operating in a cogenerative ORC cycle, for transforming the thermal energy produced in said thermal exploitation stage into electric energy,