mhurhangee/patent-ind-claim-en huggingface dataset:
A linkage for use in reclining furniture comprising: a back bracket ; a rear lift link positioned below the back bracket ; a forward back pivot link (66; 402) pivotally coupled to the back bracket at a first pivot point and pivotally coupled at a second pivot point (70; 408) to one of a seat mounting plate and the rear lift link ; a rear back pivot link pivotally coupled to the back bracket at a third pivot point and pivotally coupled to the rear lift link at a fourth pivot point , the third pivot point being rearward of the first pivot point , the fourth pivot point being rearward of the second pivot point (70; 408); and a control link having a first end opposite a second end, the first end pivotally coupled to the forward back pivot link (66; 402) at a fifth pivot point , and the second end pivotally coupled to a front lift link , the fifth pivot point being intermediate to the first pivot point and the third pivot point ; wherein the linkage is configured to move between a closed position and a fully reclined position; and whereupon movement of the linkage from the closed position to the fully reclined position, the back bracket rotates around a projected pivot point, characterized in that the projected pivot point is forward and above the first pivot point when the linkage is in the closed position. a back bracket ; a rear lift link positioned below the back bracket ; a forward back pivot link (66; 402) pivotally coupled to the back bracket at a first pivot point and pivotally coupled at a second pivot point (70; 408) to one of a seat mounting plate and the rear lift link ; a rear back pivot link pivotally coupled to the back bracket at a third pivot point and pivotally coupled to the rear lift link at a fourth pivot point , the third pivot point being rearward of the first pivot point , the fourth pivot point being rearward of the second pivot point (70; 408); and a control link having a first end opposite a second end, the first end pivotally coupled to the forward back pivot link (66; 402) at a fifth pivot point , and the second end pivotally coupled to a front lift link , the fifth pivot point being intermediate to the first pivot point and the third pivot point ; wherein the linkage is configured to move between a closed position and a fully reclined position; and whereupon movement of the linkage from the closed position to the fully reclined position, the back bracket rotates around a projected pivot point, characterized in that the projected pivot point is forward and above the first pivot point when the linkage is in the closed position.
Derailleur of a bicycle comprising a chain guide and an electric motor that displaces the chain guide , and comprising an electrically controllable device configured to selectively block the rotation of the electric motor and let the electric motor free to rotate, wherein the motor is part of a motor gear further comprising at least one gear , and characterised in that the electrically controllable device comprises a first toothed member and a second toothed member , the first toothed member being configured to selectively engage the second toothed member , the second toothed member being associated with the motor gear so that the rotation thereof is associated with the rotation of a motor shaft of the motor , as well as an electric actuator configured to displace the first toothed member into engagement and out of engagement with the second toothed member .
A method for characterizing the distribution or the migration of volumes on the surface of the skin of an individual, said method comprising the following steps: i) determining a reference value from the individual or from at least one other person, by - acquiring a three-dimensional image in voxel form that represents the surface of at least one part of the body of said individual or of said person, - selecting at least one line of said image in the form of a three-dimensional surface, and eventually making the graphic representation of this line, - computing at least one parameter correlated with said line, and obtaining a first value, called reference value, ii) determining a second value of said parameter by applying step i) to the individual, iii) a step of estimating the distribution or the migration of the volumes on the surface of the skin of the individual, said step consisting in comparing the second value to the reference value, characterized in that acquiring a three-dimensional image is realized with passive stereoscopy, and in that the surface is a three-dimensional surface, characterized in that lines of a polyhedral meshing of the image are selected, and characterized in that the parameter is the mean of the directions of the gradients of the vertices of the polyhedral meshing, or the width of the distribution of the directions of the gradients of the vertices of the polyhedral meshing. i) determining a reference value from the individual or from at least one other person, by - acquiring a three-dimensional image in voxel form that represents the surface of at least one part of the body of said individual or of said person, - selecting at least one line of said image in the form of a three-dimensional surface, and eventually making the graphic representation of this line, - computing at least one parameter correlated with said line, and obtaining a first value, called reference value, - acquiring a three-dimensional image in voxel form that represents the surface of at least one part of the body of said individual or of said person, - selecting at least one line of said image in the form of a three-dimensional surface, and eventually making the graphic representation of this line, - computing at least one parameter correlated with said line, and obtaining a first value, called reference value, ii) determining a second value of said parameter by applying step i) to the individual, iii) a step of estimating the distribution or the migration of the volumes on the surface of the skin of the individual, said step consisting in comparing the second value to the reference value,
An aqueous polarizing dye dispersion comprising a plurality of polarizing dye molecules and a non-ionic surfactant material, characterized in that said non-ionic surfactant material comprises a plurality of surfactant molecules represented by the following general formula (I): wherein: the average of the number n of all the surfactant molecules ranges from 9 to 200; m is 1 or 2; R, identical or different for each surfactant molecule and each occurrence, independently is an alkyl; at least one R on each surfactant molecule is a C6-C12 straight-chain or branched alkyl; and X, identical or different for each surfactant molecule, independently is an H or a C1-C4 alkyl; said plurality of surfactant molecules being divided into the following two groups (A) and (B): (A), having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and (B), having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1. the average of the number n of all the surfactant molecules ranges from 9 to 200; m is 1 or 2; R, identical or different for each surfactant molecule and each occurrence, independently is an alkyl; at least one R on each surfactant molecule is a C6-C12 straight-chain or branched alkyl; and X, identical or different for each surfactant molecule, independently is an H or a C1-C4 alkyl; said plurality of surfactant molecules being divided into the following two groups (A) and (B): (A), having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and (B), having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1. (A), having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and (B), having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1.
A packet edit processing method, comprising: obtaining a first protocol descriptor according to a protocol header field of an input packet, and further according to a preset protocol field mapping relationship, wherein the first protocol descriptor corresponds to the protocol header field of the input packet, and wherein the preset protocol field mapping relationship comprises a mapping relationship between the first protocol descriptor and the protocol header field of the input packet; obtaining a second protocol descriptor according to the first protocol descriptor; obtaining , according to the preset protocol field mapping relationship and the second protocol descriptor, a second protocol header field for replacing the protocol header field in the input packet; replacing the protocol header field in the input packet by the second protocol header field; and obtaining an output packet according to the second protocol header field, wherein the output packet comprises the second protocol header field. obtaining a first protocol descriptor according to a protocol header field of an input packet, and further according to a preset protocol field mapping relationship, wherein the first protocol descriptor corresponds to the protocol header field of the input packet, and wherein the preset protocol field mapping relationship comprises a mapping relationship between the first protocol descriptor and the protocol header field of the input packet; obtaining a second protocol descriptor according to the first protocol descriptor; obtaining , according to the preset protocol field mapping relationship and the second protocol descriptor, a second protocol header field for replacing the protocol header field in the input packet; replacing the protocol header field in the input packet by the second protocol header field; and obtaining an output packet according to the second protocol header field, wherein the output packet comprises the second protocol header field.
A method for associating caches in a multi-core processor , comprising: fabricating a first spin transfer torque magnetoresistive random access memory, STT-MRAM, cache and a second STT-MRAM cache utilizing a homogenous lower level integration process, wherein the fabricating comprises the first STT-MRAM is tuned according to first attributes and the second STT-MRAM is tuned according to second attributes; associating the first STT-MRAM cache with a first core of the multi-core processor , the first STT-MRAM cache being a first lower level cache relative to other cache layers of the first core; and associating the second STT-MRAM cache with a second core of the multi-core processor , the second STT-MRAM cache being a second lower level cache relative to other cache layers of the second core, the first attributes being different from the second attributes; and associating the first STT-MRAM cache or the second STT-MRAM cache with at least one other core. fabricating a first spin transfer torque magnetoresistive random access memory, STT-MRAM, cache and a second STT-MRAM cache utilizing a homogenous lower level integration process, wherein the fabricating comprises the first STT-MRAM is tuned according to first attributes and the second STT-MRAM is tuned according to second attributes; associating the first STT-MRAM cache with a first core of the multi-core processor , the first STT-MRAM cache being a first lower level cache relative to other cache layers of the first core; and associating the second STT-MRAM cache with a second core of the multi-core processor , the second STT-MRAM cache being a second lower level cache relative to other cache layers of the second core, the first attributes being different from the second attributes; and associating the first STT-MRAM cache or the second STT-MRAM cache with at least one other core.
An implantable medical device, comprising: a first device housing ; electrical circuitry within the first device housing , wherein the electrical circuitry comprises electrical terminals that are present outside of the first device housing ; a second device housing comprising a lead bore and a device housing compartment , the first device housing being present within the device housing compartment ; electrical connectors within the lead bore ; and electrical conductors electrically connecting the electrical terminals to the electrical connectors . a first device housing ; electrical circuitry within the first device housing , wherein the electrical circuitry comprises electrical terminals that are present outside of the first device housing ; a second device housing comprising a lead bore and a device housing compartment , the first device housing being present within the device housing compartment ; electrical connectors within the lead bore ; and electrical conductors electrically connecting the electrical terminals to the electrical connectors .
A server comprising: a communication interface; a processor operatively connected to the communication interface; and a memory operatively connected to the processor and configured to store a plurality of natural language understanding, NLU, models and instructions that, when executed by the processor, cause the processor to: receive first information associated with a user from an external electronic device associated with a user account using the communication interface, wherein the first information includes a voice input of the user; determine an intent corresponding to the voice input; identify at least one of the plurality of NLU models based on at least part of the first information; when the intent corresponding to the voice input is recognized more than a specified number of times, select at least one of the plurality of NLU models based on at least one voice input corresponding to the intent corresponding to the voice input; and transmit the selected at least one of the plurality of NLU models to the external electronic device using the communication interface. a communication interface; a processor operatively connected to the communication interface; and a memory operatively connected to the processor and configured to store a plurality of natural language understanding, NLU, models and instructions that, when executed by the processor, cause the processor to: receive first information associated with a user from an external electronic device associated with a user account using the communication interface, wherein the first information includes a voice input of the user; determine an intent corresponding to the voice input; identify at least one of the plurality of NLU models based on at least part of the first information; when the intent corresponding to the voice input is recognized more than a specified number of times, select at least one of the plurality of NLU models based on at least one voice input corresponding to the intent corresponding to the voice input; and transmit the selected at least one of the plurality of NLU models to the external electronic device using the communication interface. receive first information associated with a user from an external electronic device associated with a user account using the communication interface, wherein the first information includes a voice input of the user; determine an intent corresponding to the voice input; identify at least one of the plurality of NLU models based on at least part of the first information; when the intent corresponding to the voice input is recognized more than a specified number of times, select at least one of the plurality of NLU models based on at least one voice input corresponding to the intent corresponding to the voice input; and transmit the selected at least one of the plurality of NLU models to the external electronic device using the communication interface.
A speech signal processing method, applied to an earphone, wherein the earphone comprises at least one external speech collector, and the method comprises: preprocessing (S301) a speech signal collected by the at least one external speech collector, to obtain an external speech signal; extracting (S302) an ambient sound signal from the external speech signal; and performing (S303) audio mixing processing on a first speech signal and the ambient sound signal based on amplitudes and phases of the first speech signal and the ambient sound signal and a location of the at least one external speech collector, to obtain a target speech signal; wherein the at least one external speech collector comprises at least two external speech collectors, and the extracting an ambient sound signal from the external speech signal comprises: performing coherence processing on external speech signals corresponding to the at least two external speech collectors, to obtain the ambient sound signal, and wherein the external speech signal corresponding to each external speech collector is an external speech signal obtained after a speech signal collected by the external speech collector is preprocessed. preprocessing (S301) a speech signal collected by the at least one external speech collector, to obtain an external speech signal; extracting (S302) an ambient sound signal from the external speech signal; and performing (S303) audio mixing processing on a first speech signal and the ambient sound signal based on amplitudes and phases of the first speech signal and the ambient sound signal and a location of the at least one external speech collector, to obtain a target speech signal; wherein the at least one external speech collector comprises at least two external speech collectors, and the extracting an ambient sound signal from the external speech signal comprises: performing coherence processing on external speech signals corresponding to the at least two external speech collectors, to obtain the ambient sound signal, and wherein the external speech signal corresponding to each external speech collector is an external speech signal obtained after a speech signal collected by the external speech collector is preprocessed.
An augmented reality, AR, display system comprising: a display configured to project virtual images to eyes of a wearer; a frame configured to mount the display in front of the eyes of the wearer ; one or more cameras mechanically coupled to the frame and configured to capture images of an environment in front of the wearer; an electromagnetic, EM, field emitter configured to generate a magnetic field; an EM sensor configured to sense the magnetic field, wherein the EM sensor is mechanically coupled to the frame and the EM field emitter is mechanically coupled to a component (606; 2500) of the AR display system that is independently movable relative to the frame by the wearer; and a hardware processor programmed to: receive images of the environment in front of the wearer from the one or more cameras ; receive signals from the EM sensor indicative of a sensed magnetic field; analyze the received images to determine whether the component (606; 2500) of the AR display system is within a zone in back of the wearer which is outside of a field of view, FOV, of the one or more cameras ; and determine a position of the component of the AR display system based on the received signals and whether the component of the AR display system is determined to be outside of the FOV of the one or more cameras. a display configured to project virtual images to eyes of a wearer; a frame configured to mount the display in front of the eyes of the wearer ; one or more cameras mechanically coupled to the frame and configured to capture images of an environment in front of the wearer; an electromagnetic, EM, field emitter configured to generate a magnetic field; an EM sensor configured to sense the magnetic field, wherein the EM sensor is mechanically coupled to the frame and the EM field emitter is mechanically coupled to a component (606; 2500) of the AR display system that is independently movable relative to the frame by the wearer; and a hardware processor programmed to: receive images of the environment in front of the wearer from the one or more cameras ; receive signals from the EM sensor indicative of a sensed magnetic field; analyze the received images to determine whether the component (606; 2500) of the AR display system is within a zone in back of the wearer which is outside of a field of view, FOV, of the one or more cameras ; and determine a position of the component of the AR display system based on the received signals and whether the component of the AR display system is determined to be outside of the FOV of the one or more cameras. receive images of the environment in front of the wearer from the one or more cameras ; receive signals from the EM sensor indicative of a sensed magnetic field; analyze the received images to determine whether the component (606; 2500) of the AR display system is within a zone in back of the wearer which is outside of a field of view, FOV, of the one or more cameras ; and determine a position of the component of the AR display system based on the received signals and whether the component of the AR display system is determined to be outside of the FOV of the one or more cameras.
An aluminum alloy wire rod comprising Mg: 0.1 mass% to 1.0 mass%, Si: 0.1 mass% to 1.2 mass%, Fe: 0.10 mass% to 1.40 mass%, Ti: 0 mass% to 0.100 mass%, B: 0 mass% to 0.030 mass%, Cu: 0 mass% to 1.00 mass%, Ag: 0 mass% to 0.50 mass%, Au: 0 mass% to 0.50 mass%, Mn: 0 mass% to 1.00 mass%, Cr: 0 mass% to 1.00 mass%, Zr: 0 mass% to 0.50 mass%, Hf: 0 mass% to 0.50 mass%, V: 0 mass% to 0.50 mass%, Sc: 0 mass% to 0.50 mass%, Co: 0 mass% to 0.50 mass%, Ni: 0 mass% to 0.50 mass%, and the balance: Al and inevitable impurities, wherein in a cross section parallel to a wire rod lengthwise direction and including a center line of the wire rod, no void having an area greater than 20 μm 2 is present, or even in a case where at least one void having an area greater than 20 μm 2 is present, a presence ratio of the at least one void per 1000 μm 2 is on average in a range of less than or equal to one void/1000 μm 2 .
Laid fiber cable (1-1b) for use as running cable in an apparatus with a drum drive, comprising a laid core cable (2-2b) and several outer strands (7-7b) surrounding the core cable (2-2b), wherein the core cable (2-2b) and the outer strands are made of several fiber lines (9-9b, 10-10b), wherein the fiber lines (9-9b, 10-10b) are made of a non-metallic composite material having reinforcing fibers , the reinforcing fibers are stranded to form at least one reinforcing line , wherein the at least one reinforcing line is designed as as reinforcing strand or reinforcing cable and is fabricated by an apparatus for producing wire cables or wire strands, characterized in that the laid core cable (2-2b) is at least partially surrounded by a sheathing (15; 18).