mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a terminal device for exchanging information with a central system, the terminal device including processing circuitry (52, 82, 104) operable for facilitating a speech dialog with a user to communicate activity information back and forth with a user for directing the user in the performance of at least one task, the speech dialog including speech outputs from the processing circuitry (52, 82, 104) to a user and speech inputs from the user to the processing circuitry (52, 82, 104) during execution of an activity associated with the at least one task, an RFID reader (54, 84, 94, 102) operable for retrieving data from an RFID tag (70, 110) with data stored thereon, the RFID reader (54, 84, 94, 102) and processing circuitry (52, 82, 104) configured for using the retrieved tag data and generating at least a portion of the speech dialog that is reflective of the tag data, characterized in that the terminal further includes an RFID writer configured to use the speech dialog to store data on an RFID tag (10, 70), the data being based on at least one of the speech dialog, information in the terminal or information in the central system.
An apparatus for adjusting the position of a valve member of a percutaneous valve device, comprising: a first adjustment structure (105; 205; 300; 403, 405; 605) located on said valve member (110; 210; 310; 410; 510; 610; 710); and a second adjustment structure (125; 239; 335, 337; 435, 437; 607) located on a device frame (620; 720); wherein said valve member (110; 210; 310; 410; 510; 610; 710) and said device frame (620; 720) together make up said percutaneous valve device, said percutaneous valve device having a first compressed configuration for percutaneous delivery and a second expanded configuration as a working configuration; and wherein said first adjustment structure (105; 205; 300; 403, 405; 605) has a configuration that fits together in a complementary manner with a configuration on said second adjustment structure (125; 239; 335, 337; 435, 437; 607) to permit a range of relative positions between said valve member (110; 210; 310; 410; 510; 610; 710) and said device frame (620; 720) at least along a longitudinal axis of the valve device in said expanded configuration. a first adjustment structure (105; 205; 300; 403, 405; 605) located on said valve member (110; 210; 310; 410; 510; 610; 710); and a second adjustment structure (125; 239; 335, 337; 435, 437; 607) located on a device frame (620; 720); wherein said valve member (110; 210; 310; 410; 510; 610; 710) and said device frame (620; 720) together make up said percutaneous valve device, said percutaneous valve device having a first compressed configuration for percutaneous delivery and a second expanded configuration as a working configuration; and wherein said first adjustment structure (105; 205; 300; 403, 405; 605) has a configuration that fits together in a complementary manner with a configuration on said second adjustment structure (125; 239; 335, 337; 435, 437; 607) to permit a range of relative positions between said valve member (110; 210; 310; 410; 510; 610; 710) and said device frame (620; 720) at least along a longitudinal axis of the valve device in said expanded configuration.
Method for deleting limit positions (P1, P2) of a home automation screen, which are recorded in a memory of an electronic processing unit belonging to an actuator of the home automation screen, this method being characterised in that it comprises a step consisting of a) inserting simultaneously two activation members into respective housings (40, 42) recessed on the actuator. a) inserting simultaneously two activation members into respective housings (40, 42) recessed on the actuator.
A plant for polymerization, comprising the following plant components in fluid communication: a) A reactor with an inlet side and an outlet side; b) A recycle connection positioned in fluid communication between the outlet side of the reactor and the inlet side of the reactor; wherein the recycle connection comprises two or more cooling channels arranged in parallel. a) A reactor with an inlet side and an outlet side; b) A recycle connection positioned in fluid communication between the outlet side of the reactor and the inlet side of the reactor; wherein the recycle connection comprises two or more cooling channels arranged in parallel.
A resin composition for a damping material, comprising a polyol-containing component and a polyisocyanate, wherein the polyol-containing component comprises a castor oil which has an average hydroxyl value of 100 to 160 mgKOH/g and an average functional group number of 2.2 to 2.7, wherein the isocyanate index is 90 to 110, and wherein when the composition is cured, a peak of the Tan δ curve thereof is 0.7 or more and a temperature for the peak is in the range of -10°C to 100°C, as measured according to the description. wherein the polyol-containing component comprises a castor oil which has an average hydroxyl value of 100 to 160 mgKOH/g and an average functional group number of 2.2 to 2.7, wherein the isocyanate index is 90 to 110, and wherein when the composition is cured, a peak of the Tan δ curve thereof is 0.7 or more and a temperature for the peak is in the range of -10°C to 100°C, as measured according to the description.
Two-substance atomizing nozzle for spraying a liquid with the aid of a compressed gas, comprising a mixing chamber, a liquid inlet opening out into the mixing chamber, a compressed gas inlet (46a, 46b, 46c) opening out into the mixing chamber and an outlet opening downstream of the mixing chamber, characterized in that the mixing chamber, the liquid inlet and the compressed gas inlet (46a, 46b, 46c) are configured and arranged such that a liquid film is present on the wall of the nozzle mouth, wherein an annular gap surrounding the outlet opening is provided for discharging of compressed gas, wherein the outlet opening is formed by means of a peripheral wall, the outermost end of which forms an outlet edge, wherein the annular gap is arranged in the region of the outlet edge, and wherein the annular gap and the outlet edge are configured and arranged such that compressed gas is discharged at high speed from the annular gap directly in the region of the outlet edge and distends the liquid film on the outlet edge to a very thin liquid lamella and then atomizes said lamella to fine droplets.
A prefunctionalized metallic nanoparticle as a standardized basic building block of biofunctionalized nanoparticles, having a thiol-reactive metallic nanoparticle which is prefunctionalized by means of a bifunctional molecule which consists of an anchor component and a short further-functionalization-stub, wherein - the anchor component comprises one or more dithiol phosphate groups, and - the short further-functionalization-stub is adapted for the attachment of a desired biofunctionalization and is selected from the group consisting of i) an unmodified standardized oligonucleotide strand containing 2 to 18 bases for further functionalization with biomolecules having a terminal complementary counter-strand of the standardized oligonucleotide strand, and ii) a 2 to 18 base long oligonucleotide strand which is modified with a terminal reactive group for biomolecules. - the anchor component comprises one or more dithiol phosphate groups, and - the short further-functionalization-stub is adapted for the attachment of a desired biofunctionalization and is selected from the group consisting of i) an unmodified standardized oligonucleotide strand containing 2 to 18 bases for further functionalization with biomolecules having a terminal complementary counter-strand of the standardized oligonucleotide strand, and ii) a 2 to 18 base long oligonucleotide strand which is modified with a terminal reactive group for biomolecules. i) an unmodified standardized oligonucleotide strand containing 2 to 18 bases for further functionalization with biomolecules having a terminal complementary counter-strand of the standardized oligonucleotide strand, and ii) a 2 to 18 base long oligonucleotide strand which is modified with a terminal reactive group for biomolecules.
Method for spinning a thread on a spinning machine having a multiplicity of spinning stations arranged next to one another, each of which has a drafting system, with a pair of output rollers and a compacting zone downstream the drafting system, which compacts a stretched fibre assembly and which has a circulating air-permeable conveyor belt, which is guided on a sliding surface provided with a suction slot and arranged on a suction tube and which transports the fibre assembly via a clamping point delimiting the compacting zone to a release point, and in that a distance between the release point and the clamping point is predetermined by the fibre material to be spun and/or the yarn count to be spun, and in that the release point is defined by a replaceable, rampart shaped insert, which is arranged on the suction tube, wherein the insert ends with a lower side substantially flush with the suction tube, while a higher end of the insert projects beyond the contour of the suction tube, deflects the conveyor belt and can thereby create the release point for the fiber assembly, and one of a plurality of inserts is selected for a corresponding release point depending on the spinning result to be achieved.
A fuel cell, comprising: a membrane electrode assembly configured such that electrode catalyst layers (24, 26) are formed on respective surfaces of an electrolyte membrane; gas diffusion layers (204, 206) placed on respective surfaces of the membrane electrode assembly; and a frame placed around periphery of the membrane electrode assembly, wherein the membrane electrode assembly has a protruding portion that is configured by protruding outside of the gas diffusion layer (204, 206) in a state that the membrane electrode assembly is combined with the gas diffusion layers (204, 206), the frame is formed from a thermoplastic resin and has an engagement portion that is configured to engage with the protruding portion, and wherein the fuel cell further comprises an adhesive layer formed from an ultraviolet curable adhesive between the protruding portion and the engagement portion, wherein the engagement portion of the frame (300a, 300b) includes a through hole that is formed to pass through the frame (300a, 300b) in a thickness direction of the frame. a membrane electrode assembly configured such that electrode catalyst layers (24, 26) are formed on respective surfaces of an electrolyte membrane; gas diffusion layers (204, 206) placed on respective surfaces of the membrane electrode assembly; and a frame placed around periphery of the membrane electrode assembly, wherein the membrane electrode assembly has a protruding portion that is configured by protruding outside of the gas diffusion layer (204, 206) in a state that the membrane electrode assembly is combined with the gas diffusion layers (204, 206), the frame is formed from a thermoplastic resin and has an engagement portion that is configured to engage with the protruding portion, and wherein the fuel cell further comprises an adhesive layer formed from an ultraviolet curable adhesive between the protruding portion and the engagement portion, wherein the engagement portion of the frame (300a, 300b) includes a through hole that is formed to pass through the frame (300a, 300b) in a thickness direction of the frame.
A method of monitoring a state of a liquid chromatography stream of an automated analyzer, the method comprises automatically: monitoring a system pressure of an injection assembly of the liquid chromatography stream to generate a time series of system pressures (31; 40a-d), wherein the monitoring takes place during an injection process of a sample: classifying the time series (31; 40a-d) in one of two or more predetermined classes indicating different states of the LC stream; and triggering a response based on the classification result, said method being characterized in that the two or more predetermined classes include at least one class indicative of an injection of gas into the injection assembly, and/or wherein the two or more classes include at least one class indicative of an injection of a sub-nominal amount of sample and/or indicative of an injection of an above normal amount of sample, and/or wherein the two or more classes include at least one class indicative of an abnormal sample composition. monitoring a system pressure of an injection assembly of the liquid chromatography stream to generate a time series of system pressures (31; 40a-d), wherein the monitoring takes place during an injection process of a sample: classifying the time series (31; 40a-d) in one of two or more predetermined classes indicating different states of the LC stream; and triggering a response based on the classification result, said method being characterized in that the two or more predetermined classes include at least one class indicative of an injection of gas into the injection assembly, and/or wherein the two or more classes include at least one class indicative of an injection of a sub-nominal amount of sample and/or indicative of an injection of an above normal amount of sample, and/or wherein the two or more classes include at least one class indicative of an abnormal sample composition. classifying the time series (31; 40a-d) in one of two or more predetermined classes indicating different states of the LC stream; and triggering a response based on the classification result, said method being characterized in that the two or more predetermined classes include at least one class indicative of an injection of gas into the injection assembly, and/or wherein the two or more classes include at least one class indicative of an injection of a sub-nominal amount of sample and/or indicative of an injection of an above normal amount of sample, and/or wherein the two or more classes include at least one class indicative of an abnormal sample composition.
A method of operating an inverter of a wireless power transmitter in which a voltage of the inverter varies in response to a resonant network (6, 10), the method comprising: A) measuring a characteristic indicative of a load seen by the wireless power transmitter; B) determining a duty cycle of the inverter based upon the characteristic; and C) switching the inverter with the determined duty cycle, wherein the characteristic indicative of the load is an impedance, wherein B) comprises increasing the duty cycle when an imaginary component of the impedance decreases, characterized in that the imaginary component of the impedance is approximated as the difference of i) a measured magnitude of a transmit coil voltage divided by a measured magnitude of the transmit coil current; and ii) a magnitude of the impedance of the transmit coil under no load. A) measuring a characteristic indicative of a load seen by the wireless power transmitter; B) determining a duty cycle of the inverter based upon the characteristic; and C) switching the inverter with the determined duty cycle, wherein the characteristic indicative of the load is an impedance, wherein B) comprises increasing the duty cycle when an imaginary component of the impedance decreases, characterized in that the imaginary component of the impedance is approximated as the difference of i) a measured magnitude of a transmit coil voltage divided by a measured magnitude of the transmit coil current; and ii) a magnitude of the impedance of the transmit coil under no load.
A method for flour correction wherein the flour is corrected by a flour mill/flour improver to a desired standard with a falling number of between 100 and 900, comprising adding an amount of 0.001 to 0.01% wt/flour of a raw starch degrading enzyme to flour, wherein the raw starch degrading enzyme has at least 90% sequence identity with the amino acid sequence shown in SEQ ID NO:1.
A flexible current sensor comprising a sensing coil wound on a cylindrical flexible core where the said sensing coil comprises two overlapping in series connected windings wound along said cylindrical flexible core in mutually opposite direction, characterized in that the said cylindrical flexible core comprises a plurality of individual fibers from a nonmagnetic material arranged into the nearest approximation of a cylindrical shape and the sensing coil is further equipped with a separation layer located between its windings.
An adapter assembly for coupling an end effector to a handle assembly, the adapter assembly comprising: an adapter housing; a drive coupling assembly rotatably coupled to the adapter housing; a drive mechanism disposed within the adapter housing and couplable to a handle assembly and an end effector; and a retraction assembly (280, 380, 480, 580, 680) for manually reversing the drive mechanism; wherein said retraction assembly is movable relative to the adapter housing between a home configuration, in which the retraction assembly is disengaged from the drive mechanism, and a configuration in which the retraction assembly is engaged with the drive mechanism such that rotation of the retraction assembly actuates the drive mechanism. an adapter housing; a drive coupling assembly rotatably coupled to the adapter housing; a drive mechanism disposed within the adapter housing and couplable to a handle assembly and an end effector; and a retraction assembly (280, 380, 480, 580, 680) for manually reversing the drive mechanism; wherein said retraction assembly is movable relative to the adapter housing between a home configuration, in which the retraction assembly is disengaged from the drive mechanism, and a configuration in which the retraction assembly is engaged with the drive mechanism such that rotation of the retraction assembly actuates the drive mechanism.
A flame-resistant wick (1; 1a; 1b; 1c; 1d; 1e) comprising: a hollow chamber; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands (21, 22) into a tubular shape, with each of the plurality of wire strands (21, 22) consisting of a plurality of core wires (211, 221; 211c, 221c; 211d, 221d) made of a material having a melting point of not less than 800 °C, characterized in that each of the plurality of core wires (211c, 221c) has a different wire diameter to the others. a hollow chamber; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands (21, 22) into a tubular shape, with each of the plurality of wire strands (21, 22) consisting of a plurality of core wires (211, 221; 211c, 221c; 211d, 221d) made of a material having a melting point of not less than 800 °C, characterized in that each of the plurality of core wires (211c, 221c) has a different wire diameter to the others.
A gas turbine engine article comprising: a wall and a rib that are formed of a ceramic matrix composite ("CMC"), the wall circumscribing an internal cavity for receiving cooling air, the rib connecting opposed first and second sides of the wall (62c, 62d); and a shield disposed in the internal cavity and at least partially enclosing the rib to shield the rib from the cooling air; characterized in that the shield includes a spring clip that pinches onto the rib, securing the shield to the rib. a wall and a rib that are formed of a ceramic matrix composite ("CMC"), the wall circumscribing an internal cavity for receiving cooling air, the rib connecting opposed first and second sides of the wall (62c, 62d); and a shield disposed in the internal cavity and at least partially enclosing the rib to shield the rib from the cooling air; characterized in that the shield includes a spring clip that pinches onto the rib, securing the shield to the rib.
A weapon accessory mount comprising pivots and configured to attach a weapon accessory comprising a weapon accessory body to a weapon configured to fire a projectile in a projectile path direction, the accessory mount further comprising a weapon bracket comprising a flexure comprising a first end and a second end, the flexure configured to receive the weapon accessory body, the weapon bracket comprising weapon bracket first pivot portion and weapon bracket second pivot portion; characterized in that the weapon accessory body comprising a weapon accessory body first pivot portion and a weapon accessory body second pivot portion; wherein the first pivot comprises a first pivot pin inserted through a first aperture in the weapon bracket first pivot portion and inserted through a second aperture in the weapon accessory body first pivot portion, the weapon bracket first pivot portion is configured to convert at least a portion of energy of a shock recoil from translational energy to rotational energy.
A luminal stent, comprising: a tube body that can be compressed and expanded in the radial direction; and an anti-leakage structure connected with the tube body, wherein the tube body is divided by the anti-leakage structure into a first tube body located on one side of the anti-leakage structure and a second tube body located on the other side of the anti-leakage structure; at least part of the first tube body is encircled by the anti-leakage structure; in a compressed state, the second tube body and the anti-leakage structure together with the first tube body encircled by the anti-leakage structure have maximum compression diameters when compressed to the extreme limit by a radial force distributed uniformly along a circumferential direction of the luminal stent; and the maximum compression diameters of the anti-leakage structure together with the first tube body encircled by the anti-leakage structure are approximately equal to the maximum compression diameter of the second tube body. a tube body that can be compressed and expanded in the radial direction; and an anti-leakage structure connected with the tube body, wherein the tube body is divided by the anti-leakage structure into a first tube body located on one side of the anti-leakage structure and a second tube body located on the other side of the anti-leakage structure; at least part of the first tube body is encircled by the anti-leakage structure; in a compressed state, the second tube body and the anti-leakage structure together with the first tube body encircled by the anti-leakage structure have maximum compression diameters when compressed to the extreme limit by a radial force distributed uniformly along a circumferential direction of the luminal stent; and the maximum compression diameters of the anti-leakage structure together with the first tube body encircled by the anti-leakage structure are approximately equal to the maximum compression diameter of the second tube body.