mhurhangee/ep-ind-claims huggingface dataset:
An all-steel clothing for a carding machine or a roller card for treating textile fibres, including a saw-tooth wire with teeth formed one after the other in wire running direction, wherein the tooth contour of the teeth is determined by starting at a tooth root at least transitioning into a tooth back, furthermore, transitioning into a tooth tip section, furthermore, transitioning into a tooth face and again transitioning into a following tooth root, and wherein the tooth tip section is formed with a certain tooth tip length in wire running direction, wherein a tooth bump, which is placed on a partial surface of the tooth tip section, is formed on the tooth tip section, wherein the tooth bump has a tooth bump length, which is smaller than the tooth tip length, wherein the tooth bump is formed bordering the tooth face on the tooth tip length such that the tooth contour forms a tooth tip in the transition from the tooth bump (179 into the tooth face, characterized in that the tooth bump length (l) approximately corresponds to 15 % of the length of the tooth spacing of tooth tip to tooth tip.
A rubber composition, comprising silica and a conjugated diene polymer, the conjugated diene polymer being obtained by reacting a compound containing at least one of a nitrogen atom and a silicon atom with an active end of a copolymer obtained by polymerizing a monomer component including a conjugated diene compound and a silicon-containing vinyl compound using a polymerization initiator represented by the following formula: wherein i represents 0 or 1; R 11 represents a C 1-100 hydrocarbylene group; R 12 and R 13 each represent an optionally substituted hydrocarbyl group or a trihydrocarbylsilyl group, or R 12 and R 13 can be joined together to represent a hydrocarbylene group optionally containing at least one atom, as a hetero atom, selected from the group consisting of a silicon atom, a nitrogen atom, and an oxygen atom; and M represents an alkali metal atom, wherein an amount of the conjugated diene polymer is not more than 90% by mass based on 100% by mass of a rubber component of the rubber composition, and an amount of the silica is 10 to 150 parts by mass per 100 parts by mass of the rubber component.
A cysteine engineered antibody comprising one or more free cysteine amino acids having a thiol reactivity value in the range of 0.6 to 1.0, and a sequence in the heavy chain selected from SEQ ID NOS: 10, 11, 13, 14, 31, 34, 37, 38 and 42: NSLRCEDTAV (SEQ ID NO:10) LVTVCSASTKGPS (SEQ ID NO:11) LVTVSSCSTKGPS (SEQ ID NO:13) LVTVSSACTKGPS (SEQ ID NO:14) HEDPEVKFNWYVDGCEVHNAKTKPR (SEQ ID NO:31) YKCKVCNKALP (SEQ ID NO:34) KGFYPCDIAVE (SEQ ID NO:37) PPVLDCDGSFF (SEQ ID NO:38) GQGTLVTVSACSTKGPSVFPL (SEQ ID NO:42) where the cysteine in SEQ ID NOS: 10, 11, 13, 14, 31, 34, 37, 38 and 42 is the free cysteine amino acid; or a sequence in the light chain selected from SEQ ID NOS: 17, 19, 20, 21, 22, 24, 25 and 27: SLSASCGDRVT (SEQ ID NO:17) EIKRTCAAPSV (SEQ ID NO:19) TCAAPCVFIFPP (SEQ ID NO:20) FIFPPCDEQLK (SEQ ID NO:21) DEQLKCGTASV (SEQ ID NO:22) WKVDNCLQSGN (SEQ ID NO:24) ALQSGCSQESV (SEQ ID NO:25) GLSSPCTKSFN (SEQ ID NO:27) where the cysteine in SEQ ID NOS: 17, 19, 20, 21, 22, 24, 25 and 27 is the free cysteine amino acid; wherein the cysteine engineered antibody is a human, chimeric or humanized antibody.
An aerosol-generating system, comprising: a main unit; a cartridge removably coupled to the main unit; a power supply provided in the main unit; a liquid storage portion provided in the cartridge, storing liquid aerosol-forming substrate, wherein the liquid storage portion comprises a movable wall and an outlet; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a pump that delivers liquid aerosol-forming substrate from the outlet of the liquid storage portion to the internal passage of the heating element, where it is heated to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate, the pump comprising: a micro stepper motor provided in the main unit, with a drive shaft that is configured to rotate for a predetermined amount upon performing one step of the micro stepper motor; a piston connected to the movable wall; and a lead screw connecting the drive shaft to the piston and configured to translate a rotation of the drive shaft into an axial movement of the piston and a corresponding axial movement of the movable wall; wherein the vaporiser heats the delivered liquid aerosol-forming substrate in the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate. a main unit; a cartridge removably coupled to the main unit; a power supply provided in the main unit; a liquid storage portion provided in the cartridge, storing liquid aerosol-forming substrate, wherein the liquid storage portion comprises a movable wall and an outlet; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a pump that delivers liquid aerosol-forming substrate from the outlet of the liquid storage portion to the internal passage of the heating element, where it is heated to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate, the pump comprising: a micro stepper motor provided in the main unit, with a drive shaft that is configured to rotate for a predetermined amount upon performing one step of the micro stepper motor; a piston connected to the movable wall; and a lead screw connecting the drive shaft to the piston and configured to translate a rotation of the drive shaft into an axial movement of the piston and a corresponding axial movement of the movable wall; a micro stepper motor provided in the main unit, with a drive shaft that is configured to rotate for a predetermined amount upon performing one step of the micro stepper motor; a piston connected to the movable wall; and a lead screw connecting the drive shaft to the piston and configured to translate a rotation of the drive shaft into an axial movement of the piston and a corresponding axial movement of the movable wall; wherein the vaporiser heats the delivered liquid aerosol-forming substrate in the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate.
A kitchen appliance, suitable for being operated on an induction heating cooker with the power generated by the induction coil, comprising a microcontroller, one or more than one electronic circuit that provides the communication and/or control means to be controlled by the microcontroller, a power control circuitry that supplies the microcontroller and the electronic circuits with low level DC voltage, a receiver coil that partially collects and provides transfer of the power generated by the induction coil to the power control circuitry, a rectifier that converts the AC voltage delivered from the receiver coil to DC voltage and a buffer capacitor which filters the DC voltage at the rectifier outlet, characterized by a resonant circuit that is disposed between the receiver coil and the rectifier, that has one or more than one resonant capacitor (C1, C2) and that provides the power control circuitry to supply the microcontroller and the electronic circuits with constant voltage by regulating the voltage at the outlet of the receiver coil.
Pneumatic control installation for connecting to a compressed-air hoist, having at least one switchable valve assembly for controlling different operating states of the compressed-air hoist, having at least one connector for connecting to a compressed-air source, having at least one pressurization-capable load connector for connecting to a lifting cylinder or the like, having at least one throttle installation for pressurizing the load connector in a activation-proportional manner, having a valve housing, and having at least one manually operable activation member for implementing different switching states of the valve assembly, wherein the activation member mechanically interacts with the throttle installation, wherein the throttle installation comprises two adjustable throttle pistons (13a, 13b) which are in each case pre-pressurized in two potential positions, wherein a 3/3-way valve which as switchable valve bodies comprises the first and the second throttle piston (13b, 13a) is provided as the switchable valve assembly, wherein the throttle pistons (13a, 13b) have in each case control surfaces (22a, 22b), wherein the operating pressure of the load connector acts on the control surfaces (22a, 22b), and wherein the valve housing has two pilot chambers (23a, 23b) which are in each case connected to the load connector by way of pressure-equalization bores (24a, 24b).
Apparatus for estimating model parameters of a rate- or distortion-quantization model function so as to approximate an actual rate- or distortion-quantization function of a video encoder for a frame sequence, comprising an updater configured to perform a prediction step of a time-discrete Kalman filter, a state of which defines a parameter estimate for the model parameters to obtain a predicted state x ^ k − of the time-discrete Kalman filter for a current frame ( k) of the frame sequence from a state of the time-discrete Kalman filter for a previous frame ( k- 1) of the frame sequence; a first corrector configured to determine a complexity measure of the current frame k, and perform a correction step of the time-discrete Kalman filter using a measurement value which depends on the complexity measure determined so as to obtain a primarily corrected state x ^ k 0 of the time-discrete Kalman filter from the predicted state x ^ k −; and a second corrector configured to perform a correction step of the time-discrete Kalman filter using a measurement value which depends on an actual coding rate or distortion of the video encoder in encoding the current frame (k) using a predetermined quantization determined by use of an estimation of the actual rate- or distortion-quantization function according to the primarily corrected state.
A method of managing memory shared amongst multiple queues in a network switch, wherein the shared memory is logically apportioned into a dynamic allocation portion and a global reserve portion, wherein the dynamic allocation portion is a shared resource available to any queue until an occupancy level of that queue has reached a dynamic queue threshold, and wherein the global reserve portion is reserved for low volume queues for which the queue occupancy does not exceed a static queue minimum threshold, the method comprising: receiving a data packet at a first network queue from among a plurality of network queues; if the shared memory contains unallocated space, determining if a fill level of the first network queue in the shared memory exceeds the dynamic queue threshold, wherein the dynamic queue threshold is based on an amount of unallocated memory in the shared memory; and in an event that the fill level of the first network queue exceeds the dynamic queue threshold: determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold. receiving a data packet at a first network queue from among a plurality of network queues; if the shared memory contains unallocated space, determining if a fill level of the first network queue in the shared memory exceeds the dynamic queue threshold, wherein the dynamic queue threshold is based on an amount of unallocated memory in the shared memory; and in an event that the fill level of the first network queue exceeds the dynamic queue threshold: determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold. determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold.
An operation method in an electronic device with a touch screen using an electronic pen, the electronic pen having a first object, the first object being a magnet, the method comprising: checking a state where the electronic pen is laid on the touch screen and the first object of the electronic pen is attached to a metal member of the electronic device; detecting a movement of the electronic pen in the state where the electronic pen is laid on the touch screen and the first object of the electronic pen is attached to a metal member of the electronic device; and performing a function of the electronic device corresponding to the detected movement of the electronic pen. checking a state where the electronic pen is laid on the touch screen and the first object of the electronic pen is attached to a metal member of the electronic device; detecting a movement of the electronic pen in the state where the electronic pen is laid on the touch screen and the first object of the electronic pen is attached to a metal member of the electronic device; and performing a function of the electronic device corresponding to the detected movement of the electronic pen.
Combination of a selection of different pads differing in filling and a pad holder for use in a coffee machine for preparing a beverage for obtaining at least one part of a single beverage serving, including at least one primary pad containing a soluble product and at least one secondary pad, each arranged for accommodation in the pad holder and, in use, adapted to receive an aqueous fluid that is supplied under pressure to the relevant primary or secondary pad so that the fluid is forced through the primary or secondary pad for obtaining the at least one part of the beverage serving that then exits the primary or secondary pad, wherein the secondary pad includes a covering defining an interior space that is filled with a beverage preparation product for preparing the beverage wherein the beverage preparation product is ground coffee extractable with an aqueous fluid, wherein the covering comprises a flexible first sheet and a rigid shell, wherein the first sheet and the shell are connected to each other around their perimeter edges, wherein the shell is equipped with at least one outlet opening, wherein the secondary pad is further equipped with a second sheet that is positioned on a bottom of the shell, wherein the second sheet is located between the beverage preparation product and the shell and wherein the first sheet and the second sheet each form a filter that allows an aqueous fluid, including water, and the beverage to pass and that forms a barrier for the beverage preparation product so that, when in use an aqueous fluid under pressure is supplied to the first sheet of the secondary pad the fluid flows through the first sheet to the beverage preparation product so that the beverage is formed which beverage then flows through the second sheet and via the at least one outlet opening leaves the secondary pad, and wherein the at least one outlet opening forms a flow restriction for the beverage having a largest through-flow area in a direction, in use, perpendicular to a beverage flow through the flow restriction not exceeding 0.54 mm2, and preferably within a range from 0.26 to 0.32 mm2.
A functional film that is applied to a surface of a base material configured to be immersed in a liquid, the functional film comprising a film of Ti-doped tetrahedral amorphous carbon (ta-C:Ti film); wherein: an atomic ratio of Ti to C in a composition of the film is equal to or greater than 0.03 and equal to or less than 0.09; and the atomic ratio of Ti to C is equal to a number of Ti atoms occupying the film divided by a sum of a number of carbon atoms having an sp 3 hybrid orbital and a number of carbon atoms having an sp 2 hybrid orbital occupying the film. an atomic ratio of Ti to C in a composition of the film is equal to or greater than 0.03 and equal to or less than 0.09; and the atomic ratio of Ti to C is equal to a number of Ti atoms occupying the film divided by a sum of a number of carbon atoms having an sp 3 hybrid orbital and a number of carbon atoms having an sp 2 hybrid orbital occupying the film.
An antibody comprising three light chain CDRs as defined by Kabat having sequences of SEQ ID NOs: 25-27 and three heavy chain CDRs as defined by Kabat having sequences of SEQ ID NOs: 10-12.
A refrigerant compressor (100, 200) which reserves lubricating oil in a sealed container, and accommodates therein an electric component, and a compression component (107, 207) which is driven by the electric component and compresses a refrigerant, wherein at least one of slide members included in the compression component (107, 207) is made of an iron-based material, and wherein an oxide coating (160, 260) film is provided on a slide surface of the iron-based material, the oxide coating film (160, 260) comprising: a composition A portion containing diiron trioxide (Fe 2 O 3) which is more in quantity than other substances; a composition B portion containing triiron tetraoxide (Fe 3 O 4) which is more in quantity than other substances and containing a silicon (Si) compound; and a composition C portion containing triiron tetraoxide (Fe 3 O 4) which is more in quantity than other substances and containing silicon (Si) which is more in quantity than silicon (Si) of the composition B portion, wherein the oxide coating film (160, 260) comprises at least an outermost portion (160a, 260a) which is the composition A portion, an intermediate portion (160b, 260b) which is the composition B portion, and an inner portion (160c, 260c) which is the composition C portion, the outermost portion (160a, 260a), the intermediate portion (160b, 260b), and the inner portion (160c, 260c) being arranged in this order from an outermost surface (160a, 260a) of the oxide coating film (160, 260). a composition A portion containing diiron trioxide (Fe 2 O 3) which is more in quantity than other substances; a composition B portion containing triiron tetraoxide (Fe 3 O 4) which is more in quantity than other substances and containing a silicon (Si) compound; and a composition C portion containing triiron tetraoxide (Fe 3 O 4) which is more in quantity than other substances and containing silicon (Si) which is more in quantity than silicon (Si) of the composition B portion,
A terminal structure of a main circuit part of a vacuum circuit breaker, comprising: a cylindrical terminal; and a bar type terminal formed of a box type and having a plurality of heat diffusion fins at an upper surface, a lower surface, and side surfaces thereof; characterized in that the cylindrical terminal having a circular heat fin unit at an inner surface thereof and an air-flow path formed at upper and lower surfaces thereof in a direction perpendicular to a ground surface. a cylindrical terminal; and a bar type terminal formed of a box type and having a plurality of heat diffusion fins at an upper surface, a lower surface, and side surfaces thereof; characterized in that the cylindrical terminal having a circular heat fin unit at an inner surface thereof and an air-flow path formed at upper and lower surfaces thereof in a direction perpendicular to a ground surface.
A pyrotechnic circuit breaker, comprising: - a casing with at least one cutoff chamber (7, 7'), - at least one electric conductor to be cut, traversing at least part of the casing at said at least one cutoff chamber (7, 7'), - at least one punch, arranged in the casing across from said at least one cutoff chamber (7, 7'), and movable between a first position and a second position, the punch being arranged to cut said at least one electric conductor when it passes from the first position to the second position, - at least one pyrotechnic actuator, arranged to cause the punch to pass from the first position to the second position when it is actuated, - an insert overmolded over said at least one electric conductor, characterized in that the casing comprises a first casing part and a second casing part, with at least one sealing means between the insert and one of the first casing part and/or the second casing part to ensure sealing of said at least one cutoff chamber (7, 7'). - a casing with at least one cutoff chamber (7, 7'), - at least one electric conductor to be cut, traversing at least part of the casing at said at least one cutoff chamber (7, 7'), - at least one punch, arranged in the casing across from said at least one cutoff chamber (7, 7'), and movable between a first position and a second position, the punch being arranged to cut said at least one electric conductor when it passes from the first position to the second position, - at least one pyrotechnic actuator, arranged to cause the punch to pass from the first position to the second position when it is actuated, - an insert overmolded over said at least one electric conductor,
A method of operating an Alkaline Membrane Fuel Cell (AMFC) with direct ammonia feeding, the method comprising: providing AMFC comprising: a solid electrolyte membrane free of aqueous electrolyte, an anode inlet for receiving ammonia and a cathode inlet for receiving oxygen containing gas; operating the AMFC at an operation temperature of above 95 0 C; providing the oxygen containing gas to a cathode of the AMFC at a pressure above the equilibrium vapor pressure of water at the operation temperature, wherein the oxygen containing gas source further comprises a humidifier for providing humidity to the oxygen containing gas; and providing the ammonia to an anode of the AMFC, wherein the ammonia source comprises a humidifier for providing humidity to the ammonia, by providing one of: ammonia in a gas phase at a pressure above the equilibrium vapor pressure of water at the operation temperature; ammonia as an aqueous ammonia solution; and ammonia in a gas phase while adding humidity to the oxygen containing gas. providing AMFC comprising: a solid electrolyte membrane free of aqueous electrolyte, an anode inlet for receiving ammonia and a cathode inlet for receiving oxygen containing gas; operating the AMFC at an operation temperature of above 95 0 C; providing the oxygen containing gas to a cathode of the AMFC at a pressure above the equilibrium vapor pressure of water at the operation temperature, wherein the oxygen containing gas source further comprises a humidifier for providing humidity to the oxygen containing gas; and providing the ammonia to an anode of the AMFC, wherein the ammonia source comprises a humidifier for providing humidity to the ammonia, by providing one of: ammonia in a gas phase at a pressure above the equilibrium vapor pressure of water at the operation temperature; ammonia as an aqueous ammonia solution; and ammonia in a gas phase while adding humidity to the oxygen containing gas. ammonia in a gas phase at a pressure above the equilibrium vapor pressure of water at the operation temperature; ammonia as an aqueous ammonia solution; and ammonia in a gas phase while adding humidity to the oxygen containing gas.