mhurhangee/patent-ind-claim-en huggingface dataset:
A drive assembly comprising: a drive comprising a first wheel and a second wheel , wherein the first and second wheels are moveable with different angular velocities around respective first and second rotation axes, and wherein the first and second wheels are arranged on first and second rotatable platforms , respectively; a steering actuator configured to rotate the first wheel around a first pivot axis and/or the second wheel around a second pivot axis, the steering actuator being coupled to the first and second rotatable platforms ; wherein the first and second wheels are coupled such that a rotation of the first wheel around the first pivot axis by a first adjustment angle results in a rotation of the second wheel around the second pivot axis by a second adjustment angle, the second adjustment angle being dependent on the first adjustment angle, characterized in that the steering actuator is configured to switch between a first mode and a second mode, wherein, in the first mode, the second adjustment angle is a first function of the first adjustment angle, and rotation of the steering actuator in a first direction results in a rotation of the second wheel in the first direction and results in a rotation of the first wheel in a second direction opposite to the first direction, and wherein, in the second mode, the second adjustment angle is a second function of the first adjustment angle and rotation of the steering actuator in a first direction results in a rotation of the first and second rotatable platforms in a second direction opposite to the first direction. a drive comprising a first wheel and a second wheel , wherein the first and second wheels are moveable with different angular velocities around respective first and second rotation axes, and wherein the first and second wheels are arranged on first and second rotatable platforms , respectively; a steering actuator configured to rotate the first wheel around a first pivot axis and/or the second wheel around a second pivot axis, the steering actuator being coupled to the first and second rotatable platforms ; wherein the first and second wheels are coupled such that a rotation of the first wheel around the first pivot axis by a first adjustment angle results in a rotation of the second wheel around the second pivot axis by a second adjustment angle, the second adjustment angle being dependent on the first adjustment angle, characterized in that the steering actuator is configured to switch between a first mode and a second mode, wherein, in the first mode, the second adjustment angle is a first function of the first adjustment angle, and rotation of the steering actuator in a first direction results in a rotation of the second wheel in the first direction and results in a rotation of the first wheel in a second direction opposite to the first direction, and wherein, in the second mode, the second adjustment angle is a second function of the first adjustment angle and rotation of the steering actuator in a first direction results in a rotation of the first and second rotatable platforms in a second direction opposite to the first direction.
A method comprising: determining at a parent content node in an information centric network, based on requests for content from a plurality of content nodes, that a plurality of recipient content nodes are to receive a same content; generating , by the parent content node, based on a determination that the same content is available at the parent content node, a multi-delivery header comprising a plurality of identifiers, wherein each identifier of the plurality of identifiers indicates each recipient content node that is to receive the same content; appending , by the parent content node, the multi-delivery header to one or more packets of an Internet Protocol, IP, flow associated with the same content; and transmitting , by the parent content node, the one or more packets of the IP flow to each of the plurality of the recipient content nodes. determining at a parent content node in an information centric network, based on requests for content from a plurality of content nodes, that a plurality of recipient content nodes are to receive a same content; generating , by the parent content node, based on a determination that the same content is available at the parent content node, a multi-delivery header comprising a plurality of identifiers, wherein each identifier of the plurality of identifiers indicates each recipient content node that is to receive the same content; appending , by the parent content node, the multi-delivery header to one or more packets of an Internet Protocol, IP, flow associated with the same content; and transmitting , by the parent content node, the one or more packets of the IP flow to each of the plurality of the recipient content nodes.
An automatic analyzer comprising: a cleaning tank into which a probe is insertable and which has a cleaning port provided with a suction opening ; a vacuum tank ; a vacuum pump that causes the vacuum tank to enter a negative pressure state, compared to atmospheric pressure; a vacuum bin ; a suction nozzle that connects the suction opening of the cleaning port and the vacuum bin to each other; a vacuum nozzle that connects the vacuum tank and the vacuum bin to each other; and a controller that causes the vacuum tank which is in the negative pressure state and the cleaning port to be conducted via the vacuum bin in a period during which a cleaning solution, with which the probe is cleaned, is discharged through the cleaning port , characterised in that the vacuum bin is provided with a first space and a second space which are formed in a longitudinal direction of a vacuum bin main body through a first divider having a first air inlet , and a tip of the vacuum nozzle is disposed in the first space of the vacuum bin , the suction nozzle penetrates through the first divider , and a tip of the suction nozzle is disposed in the second space thereof. a cleaning tank into which a probe is insertable and which has a cleaning port provided with a suction opening ; a vacuum tank ; a vacuum pump that causes the vacuum tank to enter a negative pressure state, compared to atmospheric pressure; a vacuum bin ; a suction nozzle that connects the suction opening of the cleaning port and the vacuum bin to each other; a vacuum nozzle that connects the vacuum tank and the vacuum bin to each other; and a controller that causes the vacuum tank which is in the negative pressure state and the cleaning port to be conducted via the vacuum bin in a period during which a cleaning solution, with which the probe is cleaned, is discharged through the cleaning port , characterised in that the vacuum bin is provided with a first space and a second space which are formed in a longitudinal direction of a vacuum bin main body through a first divider having a first air inlet , and a tip of the vacuum nozzle is disposed in the first space of the vacuum bin , the suction nozzle penetrates through the first divider , and a tip of the suction nozzle is disposed in the second space thereof.
A method for diagnosing one or more diseases of the respiratory tract for a patient including the steps of: processing cough sounds from an audio recording of coughs acquired from a patient to produce cough sound feature signals representing one or more cough sound features from the cough sounds ; obtaining one or more disease signatures based on the cough sound feature signals ; and classifying the one or more disease signatures to deem the cough segments as indicative of one or more of said diseases; characterized in that the step of obtaining the one or more disease signatures based on the cough sound feature signals includes mapping the cough sound features to a set of axes, wherein each axis is a disease signature, and the step of classifying involves applying one or more disease signatures to each of a plurality of pre-trained disease signature decision machines (2a,...,2n), one pre-trained disease signature decision machine (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to either a particular disease or to a non-disease state and the other of the plurality of pre-trained disease signature decision machines (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to a first particular disease or a second particular disease different from the first particular disease. processing cough sounds from an audio recording of coughs acquired from a patient to produce cough sound feature signals representing one or more cough sound features from the cough sounds ; obtaining one or more disease signatures based on the cough sound feature signals ; and classifying the one or more disease signatures to deem the cough segments as indicative of one or more of said diseases; characterized in that the step of obtaining the one or more disease signatures based on the cough sound feature signals includes mapping the cough sound features to a set of axes, wherein each axis is a disease signature, and the step of classifying involves applying one or more disease signatures to each of a plurality of pre-trained disease signature decision machines (2a,...,2n), one pre-trained disease signature decision machine (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to either a particular disease or to a non-disease state and the other of the plurality of pre-trained disease signature decision machines (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to a first particular disease or a second particular disease different from the first particular disease.
A system to determine a number of particles of viruses in a fluid volume in real time, comprising: at least one compressed fluid supply; a sample reservoir containing a sample fluid having a liquid and a plurality of fluorescently labeled particles of viruses having a size less than 1 micron, the at least one compressed fluid supply being in fluid communication with the sample reservoir; a sample pressure regulator in fluid communication with the at least one compressed fluid supply and the sample reservoir to regulate a pressure of the sample reservoir; a sheath reservoir containing sheath fluid, the at least one compressed fluid supply being in fluid communication with the sheath reservoir; a sheath pressure regulator in fluid communication with the at least one compressed fluid supply and the sheath reservoir to regulate a pressure of the sheath reservoir; a flow cell , the flow cell being in fluid communication with both the sample reservoir and the sheath reservoir; a sample flow sensor in fluid communication with the sample reservoir and the flow cell, the sample flow sensor coupled to the sample pressure regulator to alter the pressure of the sample reservoir to maintain a substantially constant sample flow rate from the sample reservoir to the flow cell of less than 5000 nanoliters per minute; an excitation and detection system coupled to the flow cell to count via fluorescence measurement the number of the particles of viruses flowing through the flow cell, wherein the total number of the particles of viruses in the volume of fluid is provided in real time. at least one compressed fluid supply; a sample reservoir containing a sample fluid having a liquid and a plurality of fluorescently labeled particles of viruses having a size less than 1 micron, the at least one compressed fluid supply being in fluid communication with the sample reservoir; a sample pressure regulator in fluid communication with the at least one compressed fluid supply and the sample reservoir to regulate a pressure of the sample reservoir; a sheath reservoir containing sheath fluid, the at least one compressed fluid supply being in fluid communication with the sheath reservoir; a sheath pressure regulator in fluid communication with the at least one compressed fluid supply and the sheath reservoir to regulate a pressure of the sheath reservoir; a flow cell , the flow cell being in fluid communication with both the sample reservoir and the sheath reservoir; a sample flow sensor in fluid communication with the sample reservoir and the flow cell, the sample flow sensor coupled to the sample pressure regulator to alter the pressure of the sample reservoir to maintain a substantially constant sample flow rate from the sample reservoir to the flow cell of less than 5000 nanoliters per minute; an excitation and detection system coupled to the flow cell to count via fluorescence measurement the number of the particles of viruses flowing through the flow cell, wherein the total number of the particles of viruses in the volume of fluid is provided in real time.
One or more computer-readable media, CRM, comprising instructions to, upon execution of the instructions by one or more processors of a user equipment, UE, cause the UE to: decode , upon reception of a message from an access node, AN, an information element, IE, that is to indicate a first bandwidth part, BWP, to be an active BWP; configure a measurement gap, MG, on the first BWP, wherein the MG is configured and not activated based on the first BWP being the active BWP; switch the active BWP from the first BWP to a second BWP ; activate the MG with respect to a measurement of a synchronization signal block, SSB, , when the second BWP has a SubCarrier Spacing, SCS, different from a SCS of the first BWP ; and measure the SSB during an intra-frequency measurement with the MG that is configured and activated. decode , upon reception of a message from an access node, AN, an information element, IE, that is to indicate a first bandwidth part, BWP, to be an active BWP; configure a measurement gap, MG, on the first BWP, wherein the MG is configured and not activated based on the first BWP being the active BWP; switch the active BWP from the first BWP to a second BWP ; activate the MG with respect to a measurement of a synchronization signal block, SSB, , when the second BWP has a SubCarrier Spacing, SCS, different from a SCS of the first BWP ; and measure the SSB during an intra-frequency measurement with the MG that is configured and activated.
A method using a computer-based processing system comprising: forward propagating a source signal based on a current model of a subsurface region to generate a forward-propagated wavefield in a time domain ; generating a residual based on the forward-propagated wavefield in comparison to field data, wherein the field data are responsive to reflection of the source signal from the subsurface region ; back propagating the residual to generate a reconstructed source perturbation in the time domain, based on the current model, and adding the reconstructed source perturbation to the source signal to generate a reconstructed source wavefield ; forward propagating the reconstructed source perturbation to generate a reconstructed wavefield perturbation in the time domain, based on the current model, and adding the reconstructed wavefield perturbation to the forward-propagated wavefield to generate a reconstructed forward-propagated wavefield ; updating the current model based on the reconstructed forward-propagated wavefield and the reconstructed source perturbation ; and generating an image of the subsurface region based on the updated model . forward propagating a source signal based on a current model of a subsurface region to generate a forward-propagated wavefield in a time domain ; generating a residual based on the forward-propagated wavefield in comparison to field data, wherein the field data are responsive to reflection of the source signal from the subsurface region ; back propagating the residual to generate a reconstructed source perturbation in the time domain, based on the current model, and adding the reconstructed source perturbation to the source signal to generate a reconstructed source wavefield ; forward propagating the reconstructed source perturbation to generate a reconstructed wavefield perturbation in the time domain, based on the current model, and adding the reconstructed wavefield perturbation to the forward-propagated wavefield to generate a reconstructed forward-propagated wavefield ; updating the current model based on the reconstructed forward-propagated wavefield and the reconstructed source perturbation ; and generating an image of the subsurface region based on the updated model .
A rolling mill for tubular bodies comprising: - a structure defining a housing for at least one mill stand with four rolls , wherein each roll is operatively connectable to a drive shaft , said housing being vertically delimited between a horizontal support plane and a reference plane parallel to said support plane ; - four drive shafts , each of which can rotate a respective roll of said mill stand , wherein each drive shaft can axially extend and retract in reversible manner, passing from a retracted configuration, in which it is operatively disconnected from the respective roll , to an extended configuration, in which it is operatively connected to the respective roll and vice versa, characterized in that each drive shaft is actuated independently from the other drive shafts which can rotate the other rolls of the same mill stand by means of a respective drive motor , installed in a different position from that of the motors which actuate the other drive shafts, and in that two first of said drive shafts can rotate two respective non-contiguous and reciprocally opposite first rolls of the mill stand , and are angularly inclinable between a first reference position and a second reference position, such that they are outside the space comprised between the support plane and said reference plane when they are in the retracted configuration, and in that two second of said drive shafts can rotate two respective non-contiguous and reciprocally opposite second rolls of the mill stand and wherein, when the second drive shafts are in the retracted configuration, they are outside the space comprised between said support plane and said reference plane . - a structure defining a housing for at least one mill stand with four rolls , wherein each roll is operatively connectable to a drive shaft , said housing being vertically delimited between a horizontal support plane and a reference plane parallel to said support plane ; - four drive shafts , each of which can rotate a respective roll of said mill stand , wherein each drive shaft can axially extend and retract in reversible manner, passing from a retracted configuration, in which it is operatively disconnected from the respective roll , to an extended configuration, in which it is operatively connected to the respective roll and vice versa,
A method for manufacturing a molded product with fine structure without pressurization, comprising steps of: in a temperature-controlled stamper mold having a fine structure comprising a concavo-convex pattern having a width of 10 nm to 1 μm, forming a thermoplastic molten polymer layer to be in contact with the fine structure of the stamper mold having been kept at a predetermined temperature, so that it is appressed to the stamper mold without pressurization, so that the adhesive force is larger than the thermal stress of a molten polymer in the thermoplastic molten polymer layer; holding the thermoplastic molten polymer layer for a predetermined time between 0 s to 360 s so as to transcribe the fine structure of the stamper mold to the thermoplastic molten polymer layer under gravity so that the fine structure of the stamper mold is transcribed to the thermoplastic molten polymer layer without pressurization by a pressurization apparatus; cooling and solidifying the transcribed thermoplastic molten polymer layer; and subsequently releasing the solidified thermoplastic molten polymer layer from the stamper mold. in a temperature-controlled stamper mold having a fine structure comprising a concavo-convex pattern having a width of 10 nm to 1 μm, forming a thermoplastic molten polymer layer to be in contact with the fine structure of the stamper mold having been kept at a predetermined temperature, so that it is appressed to the stamper mold without pressurization, so that the adhesive force is larger than the thermal stress of a molten polymer in the thermoplastic molten polymer layer; holding the thermoplastic molten polymer layer for a predetermined time between 0 s to 360 s so as to transcribe the fine structure of the stamper mold to the thermoplastic molten polymer layer under gravity so that the fine structure of the stamper mold is transcribed to the thermoplastic molten polymer layer without pressurization by a pressurization apparatus; cooling and solidifying the transcribed thermoplastic molten polymer layer; and subsequently releasing the solidified thermoplastic molten polymer layer from the stamper mold.
A light device for a motor vehicle, notably for lighting and/or signaling, of the type comprising: - an electrical member (36, 38, 40; 30, 32, 34), notably an electronic board bearing, for example, a light source, secured to a heat sink , - at least one optical module (16, 18 20), associated with the electrical member (36, 38, 40; 30, 32, 34), the optical module (16, 18 20) being borne by a support , the light device comprising: - first means for positioning the optical module (16, 18 20) on the support , this positioning being done with plays, called pre-positioning plays, in first X, second Y and third Z directions substantially at rightangles to one another between the optical module (16, 18 20) and the support , - second means for positioning the electrical member (36, 38, 40; 30, 32, 34) on the optical module in the directions X and Y, and - third means for positioning the heat sink on the support in the direction Z. - an electrical member (36, 38, 40; 30, 32, 34), notably an electronic board bearing, for example, a light source, secured to a heat sink , - at least one optical module (16, 18 20), associated with the electrical member (36, 38, 40; 30, 32, 34), the optical module (16, 18 20) being borne by a support , - first means for positioning the optical module (16, 18 20) on the support , this positioning being done with plays, called pre-positioning plays, in first X, second Y and third Z directions substantially at rightangles to one another between the optical module (16, 18 20) and the support , - second means for positioning the electrical member (36, 38, 40; 30, 32, 34) on the optical module in the directions X and Y, and - third means for positioning the heat sink on the support in the direction Z.