mhurhangee/patent-ind-claim-en huggingface dataset:
A contact center system, comprising: an outbound server device configured to make a call to a callee; and a media device configured to: receive an audio signal when the call starts; determine a Mel-frequency cepstral coefficient for the received audio signal; match the Mel-frequency cepstral coefficient for the audio signal to a Mel-frequency cepstral coefficient for a pre-recorded carrier message; determine a content of the audio signal based on the match; distinguish a stage of the call for the received audio signal as being a pre-connect stage from being a post-connect stage based on the match; return the result of the match based on the pre-connect stage; and take an action based on the content of the audio signal, wherein the action is an action associated with the pre-connect stage. an outbound server device configured to make a call to a callee; and a media device configured to: receive an audio signal when the call starts; determine a Mel-frequency cepstral coefficient for the received audio signal; match the Mel-frequency cepstral coefficient for the audio signal to a Mel-frequency cepstral coefficient for a pre-recorded carrier message; determine a content of the audio signal based on the match; distinguish a stage of the call for the received audio signal as being a pre-connect stage from being a post-connect stage based on the match; return the result of the match based on the pre-connect stage; and take an action based on the content of the audio signal, wherein the action is an action associated with the pre-connect stage. receive an audio signal when the call starts; determine a Mel-frequency cepstral coefficient for the received audio signal; match the Mel-frequency cepstral coefficient for the audio signal to a Mel-frequency cepstral coefficient for a pre-recorded carrier message; determine a content of the audio signal based on the match; distinguish a stage of the call for the received audio signal as being a pre-connect stage from being a post-connect stage based on the match; return the result of the match based on the pre-connect stage; and take an action based on the content of the audio signal, wherein the action is an action associated with the pre-connect stage.
A rolling search unit for ultrasonic railroad rail inspection comprising: a wheel assembly having a tire filled with an ultrasonic coupling fluid and rotatably mounted on an axle for rolling contact with a head (H) of an underlying rail of the railroad, the tire being made of a flexible membrane material, whereby the tire forms a contact patch (P) when placed on the head of the underlying rail during an inspection operation; an ultrasonic transducer supported on the axle within the tire for propagating an ultrasonic beam (B) through the coupling fluid and the tire into the head of the underlying rail, and for receiving ultrasonic beams reflected back from defects detected in the underlying rail; and characterized by a baffle mounted in stationary relationship on the axle in the coupling fluid within the tire to suppress rotation of the coupling fluid with the tire when the tire rotates on the axle. a wheel assembly having a tire filled with an ultrasonic coupling fluid and rotatably mounted on an axle for rolling contact with a head (H) of an underlying rail of the railroad, the tire being made of a flexible membrane material, whereby the tire forms a contact patch (P) when placed on the head of the underlying rail during an inspection operation; an ultrasonic transducer supported on the axle within the tire for propagating an ultrasonic beam (B) through the coupling fluid and the tire into the head of the underlying rail, and for receiving ultrasonic beams reflected back from defects detected in the underlying rail; and characterized by a baffle mounted in stationary relationship on the axle in the coupling fluid within the tire to suppress rotation of the coupling fluid with the tire when the tire rotates on the axle.
A vapor compression system comprising a compressor , the compressor comprising: an inlet and an outlet ; and an electric motor having: a stator ; and a rotor ; a plurality of bearings supporting the rotor; a fluid flowpath to the plurality of bearings; a T-fitting placed with its head along the fluid flow path and the leg of the T-fitting extending upward to form a degas tank; and a liquid sensor mounted to a side of the degas tank, the liquid sensor comprising an operative end formed of a prism , wherein: the liquid sensor is oriented horizontally and spaced locally above the fluid flowpath. an inlet and an outlet ; and an electric motor having: a stator ; and a rotor ; a stator ; and a rotor ; a plurality of bearings supporting the rotor; a fluid flowpath to the plurality of bearings; a T-fitting placed with its head along the fluid flow path and the leg of the T-fitting extending upward to form a degas tank; and a liquid sensor mounted to a side of the degas tank, the liquid sensor comprising an operative end formed of a prism , wherein: the liquid sensor is oriented horizontally and spaced locally above the fluid flowpath.
A method of making an oil-in-water microemulsion containing (A) a polysiloxane, and (B) an inert fluid selected from an inert siloxane fluid and an inert organic fluid, where the average emulsion particle size is between 1 and 140 nanometers (measured with a Nanotrac particle sizer in volume mode), comprising the steps of: a) preparing an oil phase comprising a polysiloxane containing mixture by the polymerisation of silane or siloxane containing monomers and/or oligomers in the presence of an inert fluid, a suitable catalyst and optionally an end-blocking agent; and b) where required quenching the polymerisation process; wherein the inert fluid is retained within the resulting polysiloxane containing mixture in an amount of from 5% to 70% w/w; c) if required, mixing one or more surfactants into the oil phase; d) adding water to the oil phase, followed by applying agitation or shear to the mixture to arrive at an oil-in-water microemulsion; e) optionally diluting the oil-in-water microemulsion by adding more water, and wherein the inert fluid is not removed prior to emulsification and is present in the microemulsion, and is selected from an organopolysiloxane extender and/or plasticiser, an organic extender and/or plasticiser, and a cyclic siloxane comprising between 3 and 20 silicon atoms. a) preparing an oil phase comprising a polysiloxane containing mixture by the polymerisation of silane or siloxane containing monomers and/or oligomers in the presence of an inert fluid, a suitable catalyst and optionally an end-blocking agent; and b) where required quenching the polymerisation process; wherein the inert fluid is retained within the resulting polysiloxane containing mixture in an amount of from 5% to 70% w/w; c) if required, mixing one or more surfactants into the oil phase; d) adding water to the oil phase, followed by applying agitation or shear to the mixture to arrive at an oil-in-water microemulsion; e) optionally diluting the oil-in-water microemulsion by adding more water, and
Use of a catalyst comprising a catalytically active component containing at least one kind of iron group metal selected from the group consisting of iron, cobalt, and nickel; and at least one metal oxide selected from the group consisting of a solid solution of ceria and zirconia, a solid solution of ceria and yttria, and a solid solution of ceria and lanthanum oxide for decomposing ammonia into nitrogen and hydrogen.
A control entity for a communication network, characterized by comprising: a controller , in response to the event that no downlink control resource is available in a first subframe in which a downlink data resource is provided, configured for generating a downlink control signal scheduling the downlink data resource in the first subframe ; wherein the controller is configured for providing the downlink control signal over a downlink control resource in an earlier subframe which is chronologically earlier than the first subframe . a controller , in response to the event that no downlink control resource is available in a first subframe in which a downlink data resource is provided, configured for generating a downlink control signal scheduling the downlink data resource in the first subframe ; wherein the controller is configured for providing the downlink control signal over a downlink control resource in an earlier subframe which is chronologically earlier than the first subframe .
A handheld fluid meter for use in an oil bar, the handheld meter comprising: a meter body comprising: a handle ; a fluid inlet extending into the handle ; a fluid outlet extending out of an end of the meter body opposite the handle ; a trigger configured to be manually displaced to control a flow of fluid between the fluid inlet and the fluid outlet ; a bezel housing mounted on the meter body , the bezel housing including a display opening; a display screen fixedly mounted within the display opening; a user input fixedly mounted on the bezel housing , the user input including a plurality of buttons; characterised in : display circuitry configured to provide a visual output at the display screen in a plurality of orientations; user input circuitry configured to receive inputs from a user via the plurality of buttons to modify the visual output of the display screen ; and control circuitry connected to communicate with the display circuitry and the user input circuitry , the control circuitry configured to receive an input regarding a desired orientation of the visual output from the user input circuitry and to provide instructions to the display circuitry to modify the orientation of the visual output. a meter body comprising: a handle ; a fluid inlet extending into the handle ; a fluid outlet extending out of an end of the meter body opposite the handle ; a handle ; a fluid inlet extending into the handle ; a fluid outlet extending out of an end of the meter body opposite the handle ; a trigger configured to be manually displaced to control a flow of fluid between the fluid inlet and the fluid outlet ; a bezel housing mounted on the meter body , the bezel housing including a display opening; a display screen fixedly mounted within the display opening; a user input fixedly mounted on the bezel housing , the user input including a plurality of buttons; characterised in : display circuitry configured to provide a visual output at the display screen in a plurality of orientations; user input circuitry configured to receive inputs from a user via the plurality of buttons to modify the visual output of the display screen ; and control circuitry connected to communicate with the display circuitry and the user input circuitry , the control circuitry configured to receive an input regarding a desired orientation of the visual output from the user input circuitry and to provide instructions to the display circuitry to modify the orientation of the visual output. display circuitry configured to provide a visual output at the display screen in a plurality of orientations; user input circuitry configured to receive inputs from a user via the plurality of buttons to modify the visual output of the display screen ; and control circuitry connected to communicate with the display circuitry and the user input circuitry , the control circuitry configured to receive an input regarding a desired orientation of the visual output from the user input circuitry and to provide instructions to the display circuitry to modify the orientation of the visual output.
A process for separating components of a reactor off gas comprising: 1) passing a reactor off gas from a polymerization process through one or more product separators to produce gas phase (a) and a liquid phase (b); 2) cooling the gas phase (a) to produce a cooled gas phase (a) and passing the cooled gas phase (a) to a first gas/liquid separator to produce a first gas phase and a first liquid phase; 3) compressing the first gas phase to produce a compressed first gas phase and cooling the compressed first gas phase to produce a cooled first gas phase and passing the cooled first gas phase to a second gas/liquid separator to produce a second gas phase and a second liquid phase; 4) compressing the second gas phase to produce a compressed second gas phase and cooling the compressed second gas phase to produce a cooled second gas phase and passing the cooled second gas phase to a third gas/liquid separator to produce a third gas phase and a third liquid phase; and 5) compressing the third gas phase to produce a compressed third gas phase and cooling the compressed third gas phase to produce a cooled third gas phase and passing the cooled third gas phase to a fourth gas/liquid separator to produce a fourth gas phase and a fourth liquid phase; wherein the fourth liquid phase is recycled to the third gas/liquid separator; the third liquid phase is recycled to the second gas/liquid separator; and the second liquid phase is recycled to the first gas/liquid separator. 1) passing a reactor off gas from a polymerization process through one or more product separators to produce gas phase (a) and a liquid phase (b); 2) cooling the gas phase (a) to produce a cooled gas phase (a) and passing the cooled gas phase (a) to a first gas/liquid separator to produce a first gas phase and a first liquid phase; 3) compressing the first gas phase to produce a compressed first gas phase and cooling the compressed first gas phase to produce a cooled first gas phase and passing the cooled first gas phase to a second gas/liquid separator to produce a second gas phase and a second liquid phase; 4) compressing the second gas phase to produce a compressed second gas phase and cooling the compressed second gas phase to produce a cooled second gas phase and passing the cooled second gas phase to a third gas/liquid separator to produce a third gas phase and a third liquid phase; and 5) compressing the third gas phase to produce a compressed third gas phase and cooling the compressed third gas phase to produce a cooled third gas phase and passing the cooled third gas phase to a fourth gas/liquid separator to produce a fourth gas phase and a fourth liquid phase;
A negative active material, wherein the negative active material comprises a carbon material; and 6 < Gr/K < 16, wherein, Gr is a graphitization degree of the carbon material, measured by means of X-ray diffraction; and K is a ratio Id/Ig of a peak intensity Id of the carbon material at a wavenumber of 1250 cm -1 to 1650 cm -1 to a peak intensity Ig of the carbon material at a wavenumber of 1500 cm -1 to 1650 cm -1 , and is measured by using Raman spectroscopy, and K is 0.06 to 0.15, characterized in that La / S > 20 , wherein La is a size of a crystal of the carbon material along a horizontal axis as measured by means of X-ray diffraction, and is measured in units of nm; S is a ratio of a peak area C004 of a surface to a peak area C110 of a surface of the negative active material as measured by using an X-ray diffraction pattern; and La is greater than 50. wherein, Gr is a graphitization degree of the carbon material, measured by means of X-ray diffraction; and K is a ratio Id/Ig of a peak intensity Id of the carbon material at a wavenumber of 1250 cm -1 to 1650 cm -1 to a peak intensity Ig of the carbon material at a wavenumber of 1500 cm -1 to 1650 cm -1 , and is measured by using Raman spectroscopy, and K is 0.06 to 0.15, characterized in that La / S > 20 , wherein La is a size of a crystal of the carbon material along a horizontal axis as measured by means of X-ray diffraction, and is measured in units of nm; S is a ratio of a peak area C004 of a surface to a peak area C110 of a surface of the negative active material as measured by using an X-ray diffraction pattern; and La is greater than 50. La is a size of a crystal of the carbon material along a horizontal axis as measured by means of X-ray diffraction, and is measured in units of nm; S is a ratio of a peak area C004 of a surface to a peak area C110 of a surface of the negative active material as measured by using an X-ray diffraction pattern; and La is greater than 50.
A light-emitting device , comprising: a light emitter including a light-emitting portion configured to emit first emission light having a first peak wavelength (λ1) in a range of 380 to 425 nm and a full width at half maximum of 15 to 35 nm; and a coating located over the light-emitting portion of the light emitter , the coating containing phosphors to emit second emission light having a second peak wavelength (λ2) in a range of 430 to 475 nm and having a third peak wavelength (λ3) in a range of 490 to 540 nm, wherein the light-emitting device emits external emission light having a peak region (R) including the first peak wavelength (λ1), the second peak wavelength (λ2), and the third peak wavelength (λ3) and having a long wavelength region (L) defined between an upper end of the range of the third peak wavelength (λ3) and a wavelength of 750 nm in which a light intensity decreases continuously, characterised in that the phosphors include a (Sr, Ca, Ba) 10 (PO 4 ) 6 C 12 :Eu first phosphor emitting fluorescence corresponding to the second peak wavelength (λ2) and a Sr 4 Al 14 O 25 :Eu second phosphor emitting fluorescence corresponding to the third peak wavelength (λ3), and in that the external emission light has, in a wavelength region of 430 to 475 nm, light energy constituting 20 to 30% of entire light energy across the all-wavelength region. a light emitter including a light-emitting portion configured to emit first emission light having a first peak wavelength (λ1) in a range of 380 to 425 nm and a full width at half maximum of 15 to 35 nm; and a coating located over the light-emitting portion of the light emitter , the coating containing phosphors to emit second emission light having a second peak wavelength (λ2) in a range of 430 to 475 nm and having a third peak wavelength (λ3) in a range of 490 to 540 nm, wherein the light-emitting device emits external emission light having a peak region (R) including the first peak wavelength (λ1), the second peak wavelength (λ2), and the third peak wavelength (λ3) and having a long wavelength region (L) defined between an upper end of the range of the third peak wavelength (λ3) and a wavelength of 750 nm in which a light intensity decreases continuously, characterised in that the phosphors include a (Sr, Ca, Ba) 10 (PO 4 ) 6 C 12 :Eu first phosphor emitting fluorescence corresponding to the second peak wavelength (λ2) and a Sr 4 Al 14 O 25 :Eu second phosphor emitting fluorescence corresponding to the third peak wavelength (λ3), and in that the external emission light has, in a wavelength region of 430 to 475 nm, light energy constituting 20 to 30% of entire light energy across the all-wavelength region.
A rotary valve for a downhole tool, the valve comprising: a valve housing ; a manifold mounted to the valve housing ; a rotary actuator rotatably mounted within the valve housing , with the rotary actuator having a first engagement surface ; a valve seat that is coupled to the manifold , the valve seat having a second engagement surface that sealingly engages the first engagement surface ; and wherein the valve comprises a compensation piston , wherein an engagement force is applied to the rotary actuator to maintain the engagement between the first and second engagement surfaces, and characterised in that at least a portion of the engagement force is created by a first biasing device acting on the compensation piston , further comprising a sealed volume within the valve housing , wherein the compensation piston provides pressure communication between the sealed volume and a first flow passage external to the sealed volume , and wherein the first biasing device acting on the compensation piston creates a pressure differential between the first flow passage and the sealed volume by increasing a pressure in the sealed volume by a constant amount above a pressure in the first flow passage . a valve housing ; a manifold mounted to the valve housing ; a rotary actuator rotatably mounted within the valve housing , with the rotary actuator having a first engagement surface ; a valve seat that is coupled to the manifold , the valve seat having a second engagement surface that sealingly engages the first engagement surface ; and wherein the valve comprises a compensation piston , wherein an engagement force is applied to the rotary actuator to maintain the engagement between the first and second engagement surfaces, and characterised in that at least a portion of the engagement force is created by a first biasing device acting on the compensation piston , further comprising a sealed volume within the valve housing , wherein the compensation piston provides pressure communication between the sealed volume and a first flow passage external to the sealed volume , and wherein the first biasing device acting on the compensation piston creates a pressure differential between the first flow passage and the sealed volume by increasing a pressure in the sealed volume by a constant amount above a pressure in the first flow passage .
Apparatus for electrically connecting at least four electrical conductors comprising - a connecting element and - at least four shielding pipes , which are each provided to receive at least one conductor , characterized in that the connecting element forms pipe connection pieces , which are connected in each case to one shielding pipe by means of a material-bonded connection. - a connecting element and - at least four shielding pipes , which are each provided to receive at least one conductor ,
A bearing arrangement connectable to a shaft , the bearing arrangement comprising: - a bearing comprising a plurality of rolling elements as rollers arranged to rotate relative to an inner raceway of said bearing arrangement; and - a ring shaped contact element having an extension in an axial direction thereof, said ring shaped contact element further comprising a first contact surface adapted to face the plurality of rolling elements , wherein the first contact surface of the ring shaped contact element is arranged to be in contact with the at least one of the plurality of rolling elements when the bearing is exposed to axial loading, wherein an inner diameter of the ring shaped contact element at the axial position of the first contact surface has a larger diameter in comparison to a diameter of said inner raceway , such that a continuous radial gap is provided in the circumferential direction between the ring shaped contact element and the inner raceway when said bearing arrangement is connected to said shaft , wherein said radial gap is arranged to be provided in fluid communication with a lubricating flow channel of the shaft when said bearing arrangement is connected to said shaft, characterised in that shaft connecting portion of the ring shaped contact element is connected to the shaft when the bearing arrangement is connected to the shaft , the shaft connecting portion of the ring shaped contact element is configured to be press fitted to the shaft . - a bearing comprising a plurality of rolling elements as rollers arranged to rotate relative to an inner raceway of said bearing arrangement; and - a ring shaped contact element having an extension in an axial direction thereof, said ring shaped contact element further comprising a first contact surface adapted to face the plurality of rolling elements ,