mhurhangee/patent-ind-claim-en huggingface dataset:
Nickel based alloy, comprising in wt%, Chromium (Cr) 12.0% - 14.0%, Molybdenum (Mo) 1.5% - 3.0%, Tungsten (W) 2.5% - 4.5%, Aluminum (Al) 4.0% - 5.0%, Titanium (Ti) 1.8% - 2.8%, Niobium (Nb) 1.5% - 3.5%, Hafnium (Hf) 0.8% - 1.8%, Carbon (C) 0.03% - 0.13%, Boron (B) 0.005% - 0.025%, Silicon (Si) 0.005% - 0.05%, and optionally: Cobalt (Co) 0.0% - 10.0%, Tantalum (Ta) 0.0% - 3.0%, Zirconium (Zr) 0.0% - 0.03%, and no Rhenium (Re) or Ruthenium (Ru) and/or no Yttrium (Y), remainder Nickel. comprising in wt%, Chromium (Cr) 12.0% - 14.0%, Molybdenum (Mo) 1.5% - 3.0%, Tungsten (W) 2.5% - 4.5%, Aluminum (Al) 4.0% - 5.0%, Titanium (Ti) 1.8% - 2.8%, Niobium (Nb) 1.5% - 3.5%, Hafnium (Hf) 0.8% - 1.8%, Carbon (C) 0.03% - 0.13%, Boron (B) 0.005% - 0.025%, Silicon (Si) 0.005% - 0.05%, and optionally: Cobalt (Co) 0.0% - 10.0%, Tantalum (Ta) 0.0% - 3.0%, Zirconium (Zr) 0.0% - 0.03%, and no Rhenium (Re) or Ruthenium (Ru) and/or no Yttrium (Y), remainder Nickel. Cobalt (Co) 0.0% - 10.0%, Tantalum (Ta) 0.0% - 3.0%, Zirconium (Zr) 0.0% - 0.03%, and no Rhenium (Re) or Ruthenium (Ru) and/or no Yttrium (Y), remainder Nickel.
A water valve , comprising: a face plate ; a receptacle disposed in the face plate and having at least one protrusion each configured to engage a respective at least one groove of a valve-opening-and-water-dispensing device ; a cavity having a front end in water communication with the receptacle , and having a rear end ; a valve assembly disposed in the cavity , including a first sealing ring , configured to form a watertight seal by urging the first sealing ring against the rear end of the cavity in response to the valve-opening-and-water-dispensing device being absent from the receptacle , and configured to allow water to flow into the rear end of the cavity in response to the valve-opening-and-water-dispensing device being disposed in the receptacle ; characterized in that the water valve further comprises: an anti-siphon opening disposed in the face plate ; and an anti-siphon assembly having a tube that couples the anti-siphon opening to the cavity and having a single anti-siphon valve assembly that is at least partially disposed in the anti-siphon opening, configured to allow water in the cavity to drain, due to gravity, out of the anti-siphon assembly via the tube in response to the valve-opening-and-water-dispensing device being absent from the receptacle , and configured to stop water in the cavity from draining out of the anti-siphon assembly in response to the valve-opening-and-water-dispensing device being disposed in the receptacle . a face plate ; a receptacle disposed in the face plate and having at least one protrusion each configured to engage a respective at least one groove of a valve-opening-and-water-dispensing device ; a cavity having a front end in water communication with the receptacle , and having a rear end ; a valve assembly disposed in the cavity , including a first sealing ring , configured to form a watertight seal by urging the first sealing ring against the rear end of the cavity in response to the valve-opening-and-water-dispensing device being absent from the receptacle , and configured to allow water to flow into the rear end of the cavity in response to the valve-opening-and-water-dispensing device being disposed in the receptacle ; an anti-siphon opening disposed in the face plate ; and an anti-siphon assembly having a tube that couples the anti-siphon opening to the cavity and having a single anti-siphon valve assembly that is at least partially disposed in the anti-siphon opening, configured to allow water in the cavity to drain, due to gravity, out of the anti-siphon assembly via the tube in response to the valve-opening-and-water-dispensing device being absent from the receptacle , and configured to stop water in the cavity from draining out of the anti-siphon assembly in response to the valve-opening-and-water-dispensing device being disposed in the receptacle .
A control device for an agricultural vehicle having a spray boom assembly for spreading material, such as fertilizers, plant protection products or seeds, comprising a control unit and at least two pressure control valves used for controlling the inclination of the spray boom assembly and connected to the control unit, characterized in that each pressure control valve has assigned thereto a check valve and a pressure sensor , the check valve being arranged between the pressure sensor and the pressure control valve .
A system, comprising: a radio (102;462); an antenna (108;354;464) configured to be connected to the radio (102;462), wherein a connection between the radio (102;462) and the antenna (108;354;464) is interrupted until an enabling signal is received; an antenna housing (106;352) configured to house the antenna (108;354;464); a receive sensing radio within the antenna housing (106;352) configured to detect incumbent transmitter signals; and an enforcer (112;466) local to the antenna (108;354;464), the enforcer (112;466) configured to: modify the enabling signal in response to a determination whether a utilization of the antenna (108;354;464) by the radio (102;462) is permitted, wherein, if the receive sensing radio detects an incumbent transmitter signal, the determination is based, at least in part, on an attribute of the detected incumbent transmitter signal. a radio (102;462); an antenna (108;354;464) configured to be connected to the radio (102;462), wherein a connection between the radio (102;462) and the antenna (108;354;464) is interrupted until an enabling signal is received; an antenna housing (106;352) configured to house the antenna (108;354;464); a receive sensing radio within the antenna housing (106;352) configured to detect incumbent transmitter signals; and an enforcer (112;466) local to the antenna (108;354;464), the enforcer (112;466) configured to: modify the enabling signal in response to a determination whether a utilization of the antenna (108;354;464) by the radio (102;462) is permitted, wherein, if the receive sensing radio detects an incumbent transmitter signal, the determination is based, at least in part, on an attribute of the detected incumbent transmitter signal.
Process comprising the process steps of: a) adding sodium n-dodecyl sulfate, b) adding a base, c) adding a phenol of the formula ( I ): where R 1 , R 2 , R 3 , R 4 are selected from: -H, -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -(C 6 -C 20 )-aryl, -O-(C 6 -C 20 )-aryl; wherein the alkyl groups and aryl groups cited may be substituted as follows: substituted -(C 1 -C 12 )-alkyl groups, substituted -O-(C 1 -C 12 ) -alkyl, substituted -(C 6 -C 20 )-aryl, substituted -O-(C 6 -C 20 )-aryl may have one or more substituents; the substituents are each independently selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl, halogen, d) heating the reaction mixture of a) to c), e) adding hydrogen peroxide to the reaction mixture, f) cooling the reaction mixture so that the product ( II ) precipitates: a) adding sodium n-dodecyl sulfate, b) adding a base, c) adding a phenol of the formula ( I ): where R 1 , R 2 , R 3 , R 4 are selected from: -H, -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -(C 6 -C 20 )-aryl, -O-(C 6 -C 20 )-aryl; wherein the alkyl groups and aryl groups cited may be substituted as follows: substituted -(C 1 -C 12 )-alkyl groups, substituted -O-(C 1 -C 12 ) -alkyl, substituted -(C 6 -C 20 )-aryl, substituted -O-(C 6 -C 20 )-aryl may have one or more substituents; the substituents are each independently selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl, halogen, where R 1 , R 2 , R 3 , R 4 are selected from: -H, -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -(C 6 -C 20 )-aryl, -O-(C 6 -C 20 )-aryl; wherein the alkyl groups and aryl groups cited may be substituted as follows: substituted -(C 1 -C 12 )-alkyl groups, substituted -O-(C 1 -C 12 ) -alkyl, substituted -(C 6 -C 20 )-aryl, substituted -O-(C 6 -C 20 )-aryl may have one or more substituents; the substituents are each independently selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl, halogen, d) heating the reaction mixture of a) to c), e) adding hydrogen peroxide to the reaction mixture, f) cooling the reaction mixture so that the product ( II ) precipitates:
A method for controlling a linear motor of an electronic atomizer, the method comprising: initializing a driving module of the electronic atomizer, and writing vibration waveform data into a static random access memory, SRAM, of the driving module to generate pre-stored vibration waveform data (S402); initializing a register of the driving module, in an event that a vibration event of the electronic atomizer occurs at present, wherein the vibration event of the electronic atomizer is an event that requires feedback vibration of the electronic atomizer, and wherein different vibration events are triggered to provide different vibration modes, selecting, from the pre-stored vibration waveform data, a basic waveform matching a current vibration mode, configuring the basic waveform in the register (S302), adjusting, according to a gain rule corresponding to the current vibration mode, the gain of the basic waveform, and obtaining a vibration waveform called by the driving module of the electronic atomizer to drive a linear motor of the electronic atomizer to vibrate, wherein the gain is used for adjusting a vibration amplitude of the linear motor (S202). initializing a driving module of the electronic atomizer, and writing vibration waveform data into a static random access memory, SRAM, of the driving module to generate pre-stored vibration waveform data (S402); initializing a register of the driving module, in an event that a vibration event of the electronic atomizer occurs at present, wherein the vibration event of the electronic atomizer is an event that requires feedback vibration of the electronic atomizer, and wherein different vibration events are triggered to provide different vibration modes, selecting, from the pre-stored vibration waveform data, a basic waveform matching a current vibration mode, configuring the basic waveform in the register (S302), adjusting, according to a gain rule corresponding to the current vibration mode, the gain of the basic waveform, and obtaining a vibration waveform called by the driving module of the electronic atomizer to drive a linear motor of the electronic atomizer to vibrate, wherein the gain is used for adjusting a vibration amplitude of the linear motor (S202).
Laminated assembly extending in a longitudinal direction (X) and a lateral direction (Y) orthogonal to the longitudinal direction (X), the assembly comprising a non-woven sheet and an elastic film that are laminated together, the non-woven sheet including at least one activated zone extending over the length of the non-woven sheet measured in the longitudinal direction (X) and over a width that is strictly less than the width of the non-woven sheet measured in the lateral direction (Y), the degree of activation of the activated zone of the non-woven sheet in the lateral direction (Y) being different from the degree of activation of the elastic film in the lateral direction (Y), the degree of activation of the activated zone of the non-woven sheet in the lateral direction (Y) lying in the range 20% to 200%.
A component of a solid oxide fuel cell comprising: an electrolyte including a stabilized zirconia doped with at least three different dopants including Mn, Al, and Fe, wherein the stabilized zirconia includes Mn in an amount of not greater than 5 at%, Al in an amount of not greater than 3 at%, and Fe in an amount of at least 4 at% and not greater than 8 at%, wherein the electrolyte has a density of at least 92% of theoretical density, calculated based on Archimedes' principle.
A film-shaped fired material , comprising: sinterable metal particles ; and a binder component , characterised in that the material exhibits the following property: a time (A1) after the start of a temperature increase, at which a negative gradient is the highest, in a thermogravimetric curve (TG curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere and a maximum peak time (B1) in a time range of 0 seconds to 2160 seconds after the start of a temperature increase in a differential thermal analysis curve (DTA curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere using alumina particles as a reference sample satisfy a relationship of "A1 < B1 < A1 + 200 seconds" and a relationship of "A1 <2000 seconds". sinterable metal particles ; and a binder component , characterised in that the material exhibits the following property: a time (A1) after the start of a temperature increase, at which a negative gradient is the highest, in a thermogravimetric curve (TG curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere and a maximum peak time (B1) in a time range of 0 seconds to 2160 seconds after the start of a temperature increase in a differential thermal analysis curve (DTA curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere using alumina particles as a reference sample satisfy a relationship of "A1 < B1 < A1 + 200 seconds" and a relationship of "A1 <2000 seconds".
An autonomous intervention system (10;110) for a wellbore (12;112), the intervention system (10;110) comprising: a tool housing (20;120) configured to house an intervention tool (18;118) for deployment into the wellbore (12;112); a tool deployment arrangement (30;130) for deploying the intervention tool (18;118) into the wellbore (12;112), wherein the tool deployment arrangement (30;130) comprises a conveyance (32;132) for transporting the intervention tool (18;118) into and/or retrieving the intervention tool (18;118) from the wellbore (12;112) and a winch (40;140) configured to pay out and/or reel in the conveyance (32;132), and wherein the intervention system (10;110) is configurable between a tool storage configuration in which the tool housing (20;120) is isolated from the wellbore (12;112) and an activated configuration in which the tool housing (20;120) communicates with the wellbore (12;112) and permits deployment of the intervention tool (18;118) by the tool deployment arrangement (30;130); and a controller (56; 156) configured to activate the intervention system (10; 110) in response to a predetermined activation event, wherein the activation event comprises at least one of: a fluid flow rate event; a pressure event; and a temperature event, the controller permitting autonomous control of operation of the intervention system (10;110) between the tool storage configuration and the activated configuration to facilitate deployment of the intervention tool (18;118) into the wellbore (12;112). a tool housing (20;120) configured to house an intervention tool (18;118) for deployment into the wellbore (12;112); a tool deployment arrangement (30;130) for deploying the intervention tool (18;118) into the wellbore (12;112), wherein the tool deployment arrangement (30;130) comprises a conveyance (32;132) for transporting the intervention tool (18;118) into and/or retrieving the intervention tool (18;118) from the wellbore (12;112) and a winch (40;140) configured to pay out and/or reel in the conveyance (32;132), and wherein the intervention system (10;110) is configurable between a tool storage configuration in which the tool housing (20;120) is isolated from the wellbore (12;112) and an activated configuration in which the tool housing (20;120) communicates with the wellbore (12;112) and permits deployment of the intervention tool (18;118) by the tool deployment arrangement (30;130); and a controller (56; 156) configured to activate the intervention system (10; 110) in response to a predetermined activation event, wherein the activation event comprises at least one of: a fluid flow rate event; a pressure event; and a temperature event, the controller permitting autonomous control of operation of the intervention system (10;110) between the tool storage configuration and the activated configuration to facilitate deployment of the intervention tool (18;118) into the wellbore (12;112).
A method for controlling a variable speed drive arranged for powering an electric motor , the variable speed drive comprising a power part and a control part , the method comprising: a preliminary phase comprising storing a set of predetermined levels of flux of the electric motor; a current phase comprising: - selecting a level of flux from among the set of predetermined levels of flux; - controlling the power part of the variable speed drive based on the selected level of flux as reference value, - wherein each predetermined level of flux corresponds to a range of working points of the motor and wherein, upon receiving a command comprising a first working point, a first level of flux corresponding to a range of working points comprising the first working point is selected or is output to a user and the level of flux is selected based on a user input, and characterized in that - predetermined level of flux is associated with two ranges of working points, including a first range of working points for an increasing level of flux and a second range of working points for a decreasing level of flux. a preliminary phase comprising storing a set of predetermined levels of flux of the electric motor; a current phase comprising: - selecting a level of flux from among the set of predetermined levels of flux; - controlling the power part of the variable speed drive based on the selected level of flux as reference value, - wherein each predetermined level of flux corresponds to a range of working points of the motor and wherein, upon receiving a command comprising a first working point, a first level of flux corresponding to a range of working points comprising the first working point is selected or is output to a user and the level of flux is selected based on a user input, and characterized in that - predetermined level of flux is associated with two ranges of working points, including a first range of working points for an increasing level of flux and a second range of working points for a decreasing level of flux. - selecting a level of flux from among the set of predetermined levels of flux; - controlling the power part of the variable speed drive based on the selected level of flux as reference value, - wherein each predetermined level of flux corresponds to a range of working points of the motor and wherein, upon receiving a command comprising a first working point, a first level of flux corresponding to a range of working points comprising the first working point is selected or is output to a user and the level of flux is selected based on a user input, and characterized in that - predetermined level of flux is associated with two ranges of working points, including a first range of working points for an increasing level of flux and a second range of working points for a decreasing level of flux.
Method of operating a landing door of an elevator shaft, wherein the method comprises: (i) manipulating a handle part of an opening tool comprising the handle part , a detachable part reversible attached to the handle part and a tether connecting the detachable part and the handle part ; (ii) connecting the detachable part to the landing door ; (iii) detaching the handle part from the detachable part and moving the handle part away from the detachable part approximately in an opening direction of the landing door , until the tether is tensioned; (iv) pulling the tethered detachable part with the landing door connected thereto by moving the handle part further, until the landing door is positioned at a desired position; (v) holding the tether tensioned and connecting the handle part to a fixpoint , to keep the landing door opened at the desired position. (i) manipulating a handle part of an opening tool comprising the handle part , a detachable part reversible attached to the handle part and a tether connecting the detachable part and the handle part ; (ii) connecting the detachable part to the landing door ; (iii) detaching the handle part from the detachable part and moving the handle part away from the detachable part approximately in an opening direction of the landing door , until the tether is tensioned; (iv) pulling the tethered detachable part with the landing door connected thereto by moving the handle part further, until the landing door is positioned at a desired position; (v) holding the tether tensioned and connecting the handle part to a fixpoint , to keep the landing door opened at the desired position.
A lamp for a vehicle, comprising: a light source portion ; a first lens portion which includes a plurality of micro incident lenses onto which light generated by the light source portion is incident; and a second lens portion which includes a plurality of micro exit lenses disposed in front of the plurality of micro incident lenses, wherein the lamp is configured to form a beam pattern using a combination of one or more micro incident/exit units , wherein each of the micro incident/exit units includes a cylinder lens which extends in a first direction (D1) and a plurality of corresponding lenses that correspond to the cylinder lens, wherein the micro incident lens is the cylinder lens and the micro exit lens is the corresponding lens, wherein the plurality of corresponding lenses are arranged in the first direction (D1) in which the cylinder lens extends, and wherein light which exits from the micro incident lens is adapted to be incident onto the corresponding plurality of micro exit lenses , characterized in that an incident surface of the cylinder lens includes a refraction portion which is bent at both ends of the first direction (D1). a light source portion ; a first lens portion which includes a plurality of micro incident lenses onto which light generated by the light source portion is incident; and a second lens portion which includes a plurality of micro exit lenses disposed in front of the plurality of micro incident lenses, wherein the lamp is configured to form a beam pattern using a combination of one or more micro incident/exit units , wherein each of the micro incident/exit units includes a cylinder lens which extends in a first direction (D1) and a plurality of corresponding lenses that correspond to the cylinder lens, wherein the micro incident lens is the cylinder lens and the micro exit lens is the corresponding lens, wherein the plurality of corresponding lenses are arranged in the first direction (D1) in which the cylinder lens extends, and wherein light which exits from the micro incident lens is adapted to be incident onto the corresponding plurality of micro exit lenses , characterized in that an incident surface of the cylinder lens includes a refraction portion which is bent at both ends of the first direction (D1).