mhurhangee/patent-ind-claim-en huggingface dataset:
A method of monitoring the lung function of a patient using a system having a respiratory apparatus and a processing unit, the method comprising: determining, using a processing unit, an inhalation time (t i ) and a rest time (t r ) for a patient that is using the respiratory apparatus , wherein the inhalation time (t i ) and the rest time (t r ) for the patient are determined from measurements obtained from the respiratory apparatus , wherein the inhalation time (t i ) is the amount of time for which the patient inhales through the respiratory apparatus , and the rest time (t r ) is the amount of time between the end of an exhalation and the start of the next inhalation; analyzing, using the processing unit, the determined inhalation time (t i ) and the determined rest time (t r ) to determine an indication of the lung function of the patient; characterized in that the step of analyzing the determined inhalation time (t i ) and the determined rest time (t r ) to determine an indication of the lung function of the patient comprises determining, using the processing unit, a ratio of the inhalation time (t i ) to the rest time (t r ); wherein the method further comprises presenting, using the system, the determined indication of the lung function to the patient or to an additional user. determining, using a processing unit, an inhalation time (t i ) and a rest time (t r ) for a patient that is using the respiratory apparatus , wherein the inhalation time (t i ) and the rest time (t r ) for the patient are determined from measurements obtained from the respiratory apparatus , wherein the inhalation time (t i ) is the amount of time for which the patient inhales through the respiratory apparatus , and the rest time (t r ) is the amount of time between the end of an exhalation and the start of the next inhalation; analyzing, using the processing unit, the determined inhalation time (t i ) and the determined rest time (t r ) to determine an indication of the lung function of the patient; characterized in that the step of analyzing the determined inhalation time (t i ) and the determined rest time (t r ) to determine an indication of the lung function of the patient comprises determining, using the processing unit, a ratio of the inhalation time (t i ) to the rest time (t r ); wherein the method further comprises presenting, using the system, the determined indication of the lung function to the patient or to an additional user.
A setting method for a conductive object of an electrochemical test strip, comprising: A. a step of molding a metal conductive rack by a metal processing method, the metal conductive rack including a holder connected to a plurality of conductive objects ; wherein the holder and the plurality of conductive objects are monolithic; wherein each of the conductive objects comprises an information reception end having an external contact surface , and each of the conductive objects further comprises an information outputting end having a transmission contact surface ; B. a step of embedded injection of a conductive inspection body by injection molding a polymer plastic material on the plurality of conductive objects of the metal conductive rack , such that the external contact surface of the information reception end and the transmission contact surface of the information outputting end are not covered by the polymer plastic material ; wherein a side of the inspection body comprises an inspection portion , and each of the external contact surfaces of the information reception end is located in the inspection portion ; and C. a step of taking out the inspection body by detaching the inspection body from the holder of the metal conductive rack . A. a step of molding a metal conductive rack by a metal processing method, the metal conductive rack including a holder connected to a plurality of conductive objects ; wherein the holder and the plurality of conductive objects are monolithic; wherein each of the conductive objects comprises an information reception end having an external contact surface , and each of the conductive objects further comprises an information outputting end having a transmission contact surface ; B. a step of embedded injection of a conductive inspection body by injection molding a polymer plastic material on the plurality of conductive objects of the metal conductive rack , such that the external contact surface of the information reception end and the transmission contact surface of the information outputting end are not covered by the polymer plastic material ; wherein a side of the inspection body comprises an inspection portion , and each of the external contact surfaces of the information reception end is located in the inspection portion ; and C. a step of taking out the inspection body by detaching the inspection body from the holder of the metal conductive rack .
A motorcycle comprising: an engine with a variable valve timing device ; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine ; wherein the engine is provided with a transmission, wherein a heat exchanger is mounted in front of the engine in a front and rear direction of the motorcycle , wherein the oil control valve unit is mounted at a right or left side of the engine , and wherein a transmission cover configured to cover the transmission from a right or left side bulges from a right or left side surface of the engine and the oil control valve unit is mounted above the transmission cover in a vertical direction of the motorcycle, characterized in that the oil control valve unit overlaps the transmission cover , as seen from a front and rear direction of the motorcycle . an engine with a variable valve timing device ; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine ; wherein the engine is provided with a transmission, wherein a heat exchanger is mounted in front of the engine in a front and rear direction of the motorcycle , wherein the oil control valve unit is mounted at a right or left side of the engine , and wherein a transmission cover configured to cover the transmission from a right or left side bulges from a right or left side surface of the engine and the oil control valve unit is mounted above the transmission cover in a vertical direction of the motorcycle, characterized in that the oil control valve unit overlaps the transmission cover , as seen from a front and rear direction of the motorcycle .
A control system for a power machine , the control system comprising: an input device operatively connected to a power source of the power machine ; a control device that is configured to: enable operation of the power source of the power machine based upon receiving a signal from the input device ; and after receiving the signal of the input device , restrict operation of one or more power machine functions for the power machine until a wireless connection is established between the control device and a mobile device , the mobile device corresponding to an operator profile for the power machine . an input device operatively connected to a power source of the power machine ; a control device that is configured to: enable operation of the power source of the power machine based upon receiving a signal from the input device ; and after receiving the signal of the input device , restrict operation of one or more power machine functions for the power machine until a wireless connection is established between the control device and a mobile device , the mobile device corresponding to an operator profile for the power machine . enable operation of the power source of the power machine based upon receiving a signal from the input device ; and after receiving the signal of the input device , restrict operation of one or more power machine functions for the power machine until a wireless connection is established between the control device and a mobile device , the mobile device corresponding to an operator profile for the power machine .
A processor comprising: fetch circuitry to fetch an instruction; decode circuitry to decode the instruction having fields to specify an opcode and locations of an Array-of-Structures, AOS, source matrix and one or more Structure-of-Arrays, SOA, destination matrices , the AOS source matrix to contain N structures each containing K elements of different types, with same-typed elements in consecutive structures separated by a stride, the SOA destination matrices together contain K segregated groups, each containing N same-typed elements, wherein each of the K groups is disposed either in a dedicated matrix or in a shared matrix; and the opcode indicating the processor is to unpack elements of the AOS source matrix into the SOA destination matrices ; and execution circuitry to execute the instruction as per the opcode to unpack each element of the AOS source matrix into one of the K element type and write each unpacked element to its corresponding group of same-typed elements in the one or more SOA destination matrices , wherein the execution circuitry further comprises a transform circuitry to transform a data format of the elements being moved from the AOS source matrix to the SOA destination matrix and an operation circuitry to perform an arithmetic or logical operation on the elements being moved from the AOS source matrix to the SOA destination matrix . fetch circuitry to fetch an instruction; decode circuitry to decode the instruction having fields to specify an opcode and locations of an Array-of-Structures, AOS, source matrix and one or more Structure-of-Arrays, SOA, destination matrices , the AOS source matrix to contain N structures each containing K elements of different types, with same-typed elements in consecutive structures separated by a stride, the SOA destination matrices together contain K segregated groups, each containing N same-typed elements, wherein each of the K groups is disposed either in a dedicated matrix or in a shared matrix; and the opcode indicating the processor is to unpack elements of the AOS source matrix into the SOA destination matrices ; and execution circuitry to execute the instruction as per the opcode to unpack each element of the AOS source matrix into one of the K element type and write each unpacked element to its corresponding group of same-typed elements in the one or more SOA destination matrices , wherein the execution circuitry further comprises a transform circuitry to transform a data format of the elements being moved from the AOS source matrix to the SOA destination matrix and an operation circuitry to perform an arithmetic or logical operation on the elements being moved from the AOS source matrix to the SOA destination matrix .
Applicator for applying a cosmetic or care product to the eyelashes or eyebrows, having a moulded applicator member having: - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and extend from the core, a majority of the spikes being substantially parallel to one another, the elongation axes of the spikes being parallel or slightly inclined with respect to one another at an angle of less than or equal to 15°, the core having, at least in cross section, an outwardly concave overall shape, forming a cavity , spikes being disposed inside the cavity in the core, characterised in that the core has a through-orifice , the through-orifice being in the form of a slot that is elongate along the longitudinal axis (X) of the core, the width of the slot being at a maximum approximately half-way along, the slot terminating at its proximal end with a circular edge , a narrowing being formed between the ends of this circular edge and the rest of the slot . - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and extend from the core, a majority of the spikes being substantially parallel to one another, the elongation axes of the spikes being parallel or slightly inclined with respect to one another at an angle of less than or equal to 15°, the core having, at least in cross section, an outwardly concave overall shape, forming a cavity , spikes being disposed inside the cavity in the core, characterised in that the core has a through-orifice , the through-orifice being in the form of a slot that is elongate along the longitudinal axis (X) of the core, the width of the slot being at a maximum approximately half-way along, the slot terminating at its proximal end with a circular edge , a narrowing being formed between the ends of this circular edge and the rest of the slot . the core having, at least in cross section, an outwardly concave overall shape, forming a cavity , spikes being disposed inside the cavity in the core, characterised in that the core has a through-orifice , the through-orifice being in the form of a slot that is elongate along the longitudinal axis (X) of the core, the width of the slot being at a maximum approximately half-way along, the slot terminating at its proximal end with a circular edge , a narrowing being formed between the ends of this circular edge and the rest of the slot .
Separating element consisting of at least two types of layers of plastics material, - one type of layer thereof being media-resistant to mineral oils; and - the other type of layer thereof having low permeability to gases or being gas-tight, the two types of layers being firmly connected to one another in direct contact and giving rise to the elastically resilient separating element , and one type of layer consisting of epichlorohydrin rubber and the other type of layer consisting of isobutylene-isoprene rubber, characterised in that between two layers of the one type, a layer of the other type is received across its entire surface. - one type of layer thereof being media-resistant to mineral oils; and - the other type of layer thereof having low permeability to gases or being gas-tight, the two types of layers being firmly connected to one another in direct contact and giving rise to the elastically resilient separating element , and one type of layer consisting of epichlorohydrin rubber and the other type of layer consisting of isobutylene-isoprene rubber, characterised in that between two layers of the one type, a layer of the other type is received across its entire surface. the two types of layers being firmly connected to one another in direct contact and giving rise to the elastically resilient separating element , and one type of layer consisting of epichlorohydrin rubber and the other type of layer consisting of isobutylene-isoprene rubber, characterised in that between two layers of the one type, a layer of the other type is received across its entire surface.
A method implemented by one or more processors, the method comprising: obtaining, via a voice bot development platform, a plurality of remote procedure call, RPC, training instances, each of the plurality of RPC training instances including: training instance input, the training instance input including at least a portion of a corresponding conversation and a prior context of the corresponding conversation, and training instance output, the training instance output including a corresponding ground truth response to at least the portion of the corresponding conversation; training, via the voice bot development platform, a voice bot based on at least the plurality of RPC training instances, wherein training the voice bot based on the plurality of RPC training instances causes the voice bot to interact with a third-party system capable of receiving RPC outbound requests from the voice bot and transmitting responsive RPC inbound requests back to the voice bot; and subsequent to training the voice bot: causing the trained voice bot to be deployed for conducting conversations on behalf of a third-party. obtaining, via a voice bot development platform, a plurality of remote procedure call, RPC, training instances, each of the plurality of RPC training instances including: training instance input, the training instance input including at least a portion of a corresponding conversation and a prior context of the corresponding conversation, and training instance output, the training instance output including a corresponding ground truth response to at least the portion of the corresponding conversation; training instance input, the training instance input including at least a portion of a corresponding conversation and a prior context of the corresponding conversation, and training instance output, the training instance output including a corresponding ground truth response to at least the portion of the corresponding conversation; training, via the voice bot development platform, a voice bot based on at least the plurality of RPC training instances, wherein training the voice bot based on the plurality of RPC training instances causes the voice bot to interact with a third-party system capable of receiving RPC outbound requests from the voice bot and transmitting responsive RPC inbound requests back to the voice bot; and subsequent to training the voice bot: causing the trained voice bot to be deployed for conducting conversations on behalf of a third-party.
Use of a lubricating composition comprising a base oil and at least one alkyl methacrylate polymer, for reducing particle emissions from an engine, the alkyl methacrylate polymer being a comb polymer whose the pendant chains comprise at least 50 carbon atoms and is chosen from copolymers of at least one polyolefin and at least one poly(alkyl)methacrylate; copolymers of at least one polyolefin and at least one poly(alkyl)acrylate.
A method of measuring impedance, comprising: exciting a device under test with a multispectral excitation signal for an excitation time period while the device under test is under a load condition from a load operably coupled to the device under test; sampling a response of the device under test over a sample time period, wherein the excitation time period is within the sample time period such that the sample time period includes an in-band interval during the excitation time period, and one or more out-of-band intervals outside of the in-band interval; estimating a load response of the device under test to the load condition during the in-band interval by analyzing samples of the response from the one or more out-of-band intervals, wherein estimating the load response comprises fitting a mathematical expression to samples of the response from the one or more out-of-band intervals; computing adjusted samples by subtracting the estimated load response during the in-band interval from the samples from the in-band interval; and estimating an impedance of the device under test by analyzing the adjusted samples, characterised in that computing the adjusted samples comprises analyzing the mathematical expression at time points corresponding to the samples from the in-band interval. exciting a device under test with a multispectral excitation signal for an excitation time period while the device under test is under a load condition from a load operably coupled to the device under test; sampling a response of the device under test over a sample time period, wherein the excitation time period is within the sample time period such that the sample time period includes an in-band interval during the excitation time period, and one or more out-of-band intervals outside of the in-band interval; estimating a load response of the device under test to the load condition during the in-band interval by analyzing samples of the response from the one or more out-of-band intervals, wherein estimating the load response comprises fitting a mathematical expression to samples of the response from the one or more out-of-band intervals; computing adjusted samples by subtracting the estimated load response during the in-band interval from the samples from the in-band interval; and estimating an impedance of the device under test by analyzing the adjusted samples, characterised in that computing the adjusted samples comprises analyzing the mathematical expression at time points corresponding to the samples from the in-band interval.
A vehicle , comprising: a vehicle body ; a wing having an upper side and a front; a wing support mounted between the vehicle body and the wing, the wing support extending from the upper side of the wing, around the front of the wing, to the vehicle body and being pivotally attached to the wing at a first location on the wing so that the first location is positionally fixed relative to the wing support and the wing can rotate between a first position and a second position; a linear actuator for moving the wing between the first position and the second position; characterized in that the vehicle comprises: a linkage pivotally attached to the wing at a second location forwards of the first location and coupled to the linear actuator so that the linear actuator can move the wing between the first position and the second position; wherein the wing is capable of imposing a downforce on the wing support acting through a centre of pressure of the wing as a result of the action of rearward airflow on the wing and the centre of pressure is located rearwards of the first location irrespective of the position of the wing. a vehicle body ; a wing having an upper side and a front; a wing support mounted between the vehicle body and the wing, the wing support extending from the upper side of the wing, around the front of the wing, to the vehicle body and being pivotally attached to the wing at a first location on the wing so that the first location is positionally fixed relative to the wing support and the wing can rotate between a first position and a second position; a linear actuator for moving the wing between the first position and the second position; characterized in that the vehicle comprises: a linkage pivotally attached to the wing at a second location forwards of the first location and coupled to the linear actuator so that the linear actuator can move the wing between the first position and the second position; wherein the wing is capable of imposing a downforce on the wing support acting through a centre of pressure of the wing as a result of the action of rearward airflow on the wing and the centre of pressure is located rearwards of the first location irrespective of the position of the wing. a linkage pivotally attached to the wing at a second location forwards of the first location and coupled to the linear actuator so that the linear actuator can move the wing between the first position and the second position; wherein the wing is capable of imposing a downforce on the wing support acting through a centre of pressure of the wing as a result of the action of rearward airflow on the wing and the centre of pressure is located rearwards of the first location irrespective of the position of the wing.