mhurhangee/patent-ind-claim-en huggingface dataset:
A method of predicting an estimated time to failure of a DC circuit path that can pass an electric current through it, comprising: a) generating an alternating DC pulse signal for a DC circuit path by first generating a DC pulse train using a pulse generator , then generating an negative DC pulse train using a pulse invertor and the DC pulse train , marrying the DC pulse train and the negative DC pulse train to generate the alternating DC pulse signal , the DC circuit path identified to have an estimated time to failure; b) establishing a baseline for the specific DC circuit path in terms of amplitude ratio distortions, period ratio fluctuations, and duration ratio variations characteristics at a zero crossing point of the transmitted alternating DC pulse signal output from the DC circuit path ; c) monitoring and determining the ratios of the DC circuit path used in step (b), in a zero point crossing region for the DC circuit path that has been in service; and d) comparing the ratios of step (b) and step (c) and using the comparison of the ratios of step (b) and step (c) to establish a decay rate analytic curve, the decay rate analytic curve used to predict estimated time to failure for the DC circuit path being monitored. a) generating an alternating DC pulse signal for a DC circuit path by first generating a DC pulse train using a pulse generator , then generating an negative DC pulse train using a pulse invertor and the DC pulse train , marrying the DC pulse train and the negative DC pulse train to generate the alternating DC pulse signal , the DC circuit path identified to have an estimated time to failure; b) establishing a baseline for the specific DC circuit path in terms of amplitude ratio distortions, period ratio fluctuations, and duration ratio variations characteristics at a zero crossing point of the transmitted alternating DC pulse signal output from the DC circuit path ; c) monitoring and determining the ratios of the DC circuit path used in step (b), in a zero point crossing region for the DC circuit path that has been in service; and d) comparing the ratios of step (b) and step (c) and using the comparison of the ratios of step (b) and step (c) to establish a decay rate analytic curve, the decay rate analytic curve used to predict estimated time to failure for the DC circuit path being monitored.
A method of scheduling requests in a storage system , the method comprising: receiving , at a scheduler , an input/output, I/O, request associated with a first storage device ; receiving , at the scheduler , task information from a neural network circuit , the task information being associated with a background task performed by the first storage device ; and modifying a processing of the request at the first storage device based on the task information , wherein the task information comprises an indication that the first storage device has a probability of performing the background task that exceeds a threshold, wherein: a) when the request comprises a read request, the modifying the processing of the request at the first storage device comprises: prefetching data from the first storage device based on the task information , storing the data at a buffer associated with the scheduler , and retrieving at least a portion of the data from the buffer based on the request and based on the task information ; and b) when the request comprises a write request, and the modifying the processing of the request at the first storage device comprises rerouting the processing of the request from the first storage device to a second storage device based on the task information . receiving , at a scheduler , an input/output, I/O, request associated with a first storage device ; receiving , at the scheduler , task information from a neural network circuit , the task information being associated with a background task performed by the first storage device ; and modifying a processing of the request at the first storage device based on the task information , wherein the task information comprises an indication that the first storage device has a probability of performing the background task that exceeds a threshold, wherein: a) when the request comprises a read request, the modifying the processing of the request at the first storage device comprises: prefetching data from the first storage device based on the task information , storing the data at a buffer associated with the scheduler , and retrieving at least a portion of the data from the buffer based on the request and based on the task information ; and b) when the request comprises a write request, and the modifying the processing of the request at the first storage device comprises rerouting the processing of the request from the first storage device to a second storage device based on the task information . a) when the request comprises a read request, the modifying the processing of the request at the first storage device comprises: prefetching data from the first storage device based on the task information , storing the data at a buffer associated with the scheduler , and retrieving at least a portion of the data from the buffer based on the request and based on the task information ; and b) when the request comprises a write request, and the modifying the processing of the request at the first storage device comprises rerouting the processing of the request from the first storage device to a second storage device based on the task information .
Load support for a heavy-duty transport vehicle, which has a load bed arranged on a substructure of the load support for receiving an elongated object (O), characterized in that the load bed is arranged pivotably in the substructure of the load support , and that the load bed comprises at least two load carriers extending in the longitudinal direction of the load support , that on each narrow sides of the load bed a guiding link is provided, which comprises guide slots , that in the substructure of the load support longitudinal members are fixedly arranged, so that the load bed of the load support can pivot about the longitudinal members guided in the guiding links relative to the substructure of the load support .
Method for battery management, wherein an amount of a current (I V ) that can be provided by the battery in a prediction time period (Δt) is determined from an available amount (K R ) of a status variable predicted in the prediction time period (Δt), wherein the predicted available amount (K R ) of the status variable is determined by means of a difference between a permissible amount (K max ) of the status variable determined with respect to a first reference time period (t 1 ) and an obtained amount (K) of the status variable determined with respect to the first reference time period (t 1 ), wherein the following applies: K = ∫ t − t 1 t I 2 t ′ dt ′ , where K is the obtained amount of the status variable in the first reference time period t 1 , I is the current measured in A and t is the time measured in s; K max = I 2 rms T ⋅ t 1 , where K max is the permissible amount of the status variable in the first reference time period t 1 and I rms is a temperature-dependent lifetime-optimized upper limit of the current; K R = K max − K , where K R is the predicted maximum available amount of the status variable, characterized in that the predicted available amount (K R ) of the status variable is increased by an amount (K N ) of an obtained status variable determined with respect to a second reference time period (t 2 ), wherein the following applies: K R = K max − K + K N , with K N = ∫ t − t 1 t − t 1 + t 2 I 2 t ′ dt ′ , where K N is the amount of the obtained status variable determined with respect to the second reference time period t 2 ; and wherein the amount of the current that can be provided is determined according to I V = K max − K + K N Δt = t 1 I 2 rms T − ∫ t − t 1 t I 2 t ′ dt ′ + ∫ t − t 1 t − t 1 + Δt I 2 t ′ dt ′ Δt
A method of controlling an air conditioner comprising a water level sensing device installed in a condensed water partition wall defining a condensed water storage part , in a state of not contacting condensed water, for sensing capacitance of the condensed water through a plurality of electrode pads , the method comprising: sensing the capacitance of the condensed water through any one of the electrode pads to sense a level of the condensed water during cooling; and operating a drainage pump based on the level of the condensed water sensed through any one of the electrode pads to drain the condensed water stored in the condensed water storage part . sensing the capacitance of the condensed water through any one of the electrode pads to sense a level of the condensed water during cooling; and operating a drainage pump based on the level of the condensed water sensed through any one of the electrode pads to drain the condensed water stored in the condensed water storage part .
A driving assistance method comprising: extracting (S2) a high difficulty point on a planned travel route of a host vehicle , where a travel lane of the host vehicle joins another lane ; determining (S5) whether or not a following vehicle traveling on the same lane as the lane of the host vehicle is present within a predetermined range from the host vehicle; and guiding (S6) switching of a traveling state of the host vehicle from autonomous driving to manual driving when the following vehicle is present within the predetermined range from the host vehicle, characterized in that the determining (S5) determines whether or not the following vehicle traveling on the same lane as the lane of the host vehicle is present within the predetermined range from the host vehicle, when the host vehicle reaches at a point located at a first predetermined distance (D1) or more before the high difficulty point, the first predetermined distance (D1) being longer than a second predetermined distance (D2) from the high difficulty point to a point where the host vehicle can determine whether or not any other vehicle is present on the another lane . extracting (S2) a high difficulty point on a planned travel route of a host vehicle , where a travel lane of the host vehicle joins another lane ; determining (S5) whether or not a following vehicle traveling on the same lane as the lane of the host vehicle is present within a predetermined range from the host vehicle; and guiding (S6) switching of a traveling state of the host vehicle from autonomous driving to manual driving when the following vehicle is present within the predetermined range from the host vehicle, characterized in that the determining (S5) determines whether or not the following vehicle traveling on the same lane as the lane of the host vehicle is present within the predetermined range from the host vehicle, when the host vehicle reaches at a point located at a first predetermined distance (D1) or more before the high difficulty point, the first predetermined distance (D1) being longer than a second predetermined distance (D2) from the high difficulty point to a point where the host vehicle can determine whether or not any other vehicle is present on the another lane .
A method of producing isothiocyanates, the method comprising: - forming, in a semi-solid or solid callus induction medium, compact callus aggregates from cells obtained from explant material of a Brassica oleracea L. plant; - transferring cells from the callus aggregates to a suspension culture in a liquid medium in a shake flask, the liquid medium containing a plurality of elicitors, - transferring cells from the suspension culture to a further suspension culture in a bioreactor containing the plurality of elicitors, and - extracting and/or purifying of at least one isothiocyanate from cells obtained from the bioreactor, wherein said plurality of elicitors comprises chitosan and salicylic acid to increase accumulation of benzyl isothiocyanate, wherein said liquid medium contains a concentration in the range of 10 mg/L to 40 mg/L of salicylic acid and a concentration in the range of 200 mg/L to 600 mg/L of chitosan. - forming, in a semi-solid or solid callus induction medium, compact callus aggregates from cells obtained from explant material of a Brassica oleracea L. plant; - transferring cells from the callus aggregates to a suspension culture in a liquid medium in a shake flask, the liquid medium containing a plurality of elicitors, - transferring cells from the suspension culture to a further suspension culture in a bioreactor containing the plurality of elicitors, and - extracting and/or purifying of at least one isothiocyanate from cells obtained from the bioreactor, wherein said plurality of elicitors comprises chitosan and salicylic acid to increase accumulation of benzyl isothiocyanate, wherein said liquid medium contains a concentration in the range of 10 mg/L to 40 mg/L of salicylic acid and a concentration in the range of 200 mg/L to 600 mg/L of chitosan.
A distributor head for a suction pump, comprising - a housing - a pump connection for applying a negative pressure and - a plurality of hollow needles connected in fluid-tight manner to the pump connection and arranged spaced apart to each other, wherein the individual connection paths of the hollow needles to the pump connection each have an independently operable switching valve , characterized in that the hollow needles are arranged fixed on the housing and parallel to one another and each switching valve has a test chamber assigned to it, whose interior is a component of the respective connection path and whose outer wall comprises a viewing window penetrating the housing , wherein the test chambers are arranged on the hollow needle side of the respective assigned switching valve in the respective connection path . - a housing - a pump connection for applying a negative pressure and - a plurality of hollow needles connected in fluid-tight manner to the pump connection and arranged spaced apart to each other,
A gas turbine engine comprising: a fan including a plurality of fan blades rotatable about an axis (A); a plurality of inlet guide vanes mounted forward of the plurality of fan blades , the plurality of inlet guide vanes selectively rotatable about the axis (A) independent of the plurality of fan blades ; and a motor for controlling rotation of the plurality of inlet guide vanes about the axis (A), wherein the motor comprises an electric motor , characterised in that : the gas turbine engine further comprises a geared architecture driven by a turbine section of the gas turbine engine , the geared architecture including an output driving the plurality of fan blades at a speed different than the turbine section ; the plurality of fan blades are positioned forward of the turbine section ; and the plurality of inlet guide vanes are movable from a non-rotating condition to a rotating condition independent of rotation of the plurality of fan blades . a fan including a plurality of fan blades rotatable about an axis (A); a plurality of inlet guide vanes mounted forward of the plurality of fan blades , the plurality of inlet guide vanes selectively rotatable about the axis (A) independent of the plurality of fan blades ; and a motor for controlling rotation of the plurality of inlet guide vanes about the axis (A), wherein the motor comprises an electric motor , characterised in that : the gas turbine engine further comprises a geared architecture driven by a turbine section of the gas turbine engine , the geared architecture including an output driving the plurality of fan blades at a speed different than the turbine section ; the plurality of fan blades are positioned forward of the turbine section ; and the plurality of inlet guide vanes are movable from a non-rotating condition to a rotating condition independent of rotation of the plurality of fan blades . the gas turbine engine further comprises a geared architecture driven by a turbine section of the gas turbine engine , the geared architecture including an output driving the plurality of fan blades at a speed different than the turbine section ; the plurality of fan blades are positioned forward of the turbine section ; and the plurality of inlet guide vanes are movable from a non-rotating condition to a rotating condition independent of rotation of the plurality of fan blades .
A method for decoding at a User Equipment, UE, the method comprising: receiving a Physical Downlink Control Channel, PDCCH, from a base station during a subframe k; and decoding a set of PDCCH candidates within a search space of the PDCCH during the subframe k, wherein each PDCCH candidate of the set of PDCCH candidates comprises a defined number, L, of control channel elements, CCEs, wherein the CCEs, for one PDCCH candidate of the set of PDCCH candidates, are consecutively located from a variable position, Z k , within the subframe k, and wherein the variable position within the subframe k is determined, for the one PDCCH candidate of the set of PDCCH candidates, based upon the variable position within a previous subframe of the subframe k, wherein the CCEs corresponding to a specific PDCCH candidate of the set of PDCCH candidates are given by using a total number of CCEs included in the subframe k, N CCE,k , and the number of CCEs corresponding to the specific PDCCH candidate, L, using the formula Z k = L ⋅ ( Y k mod ⌊ N CCE , k / L ⌋ Y k = A ⋅ Y k − 1 mod D , where Y -1 is an identification of the UE, and A and D are predetermined constant values. receiving a Physical Downlink Control Channel, PDCCH, from a base station during a subframe k; and decoding a set of PDCCH candidates within a search space of the PDCCH during the subframe k, wherein each PDCCH candidate of the set of PDCCH candidates comprises a defined number, L, of control channel elements, CCEs, wherein the CCEs, for one PDCCH candidate of the set of PDCCH candidates, are consecutively located from a variable position, Z k , within the subframe k, and wherein the variable position within the subframe k is determined, for the one PDCCH candidate of the set of PDCCH candidates, based upon the variable position within a previous subframe of the subframe k, wherein the CCEs corresponding to a specific PDCCH candidate of the set of PDCCH candidates are given by using a total number of CCEs included in the subframe k, N CCE,k , and the number of CCEs corresponding to the specific PDCCH candidate, L, using the formula Z k = L ⋅ ( Y k mod ⌊ N CCE , k / L ⌋ Y k = A ⋅ Y k − 1 mod D , where Y -1 is an identification of the UE, and A and D are predetermined constant values.
Extruder system for degassing a mixture with a first extruder , a second extruder arranged downstream of the first extruder , a transfer zone formed between them, and a pressure control device by which the pressure of the mixture at the discharge of the first extruder can be regulated, characterized in that a closable outlet is provided in the region of the transfer zone for the discharge of mixture , wherein the outlet can be closed by means of the pressure control device.
A head-mounted display device comprising: an image capture device; an interface configured to establish a network connection ; at least one processing unit ; and memory storing instructions that, when executed by the at least one processing unit , cause the head-mounted display device to perform operations comprising: detecting, by the image capture device, a fiducial marker displayed via an electronic paper display connected to an Internet of Things, IoT, device located in an environment that contains a plurality of IoT devices (104A - 104C); extracting an identifier for the IoT device from the fiducial marker ; using the identifier for the IoT device to establish the network connection with the IoT device via the interface ; obtaining, via the network connection , a property of the IoT device ; determining, based on a known shape and a known size of a target point configured within the fiducial marker , an orientation and a position of the IoT device in the environment relative to the head-mounted display device ; and using the orientation and the position of the IoT device in the environment relative to the head-mounted display device to display data in association with the IoT device based at least in part on the property of the IoT device so that it appears the data is being projected on to the IoT device . an image capture device; an interface configured to establish a network connection ; at least one processing unit ; and memory storing instructions that, when executed by the at least one processing unit , cause the head-mounted display device to perform operations comprising: detecting, by the image capture device, a fiducial marker displayed via an electronic paper display connected to an Internet of Things, IoT, device located in an environment that contains a plurality of IoT devices (104A - 104C); extracting an identifier for the IoT device from the fiducial marker ; using the identifier for the IoT device to establish the network connection with the IoT device via the interface ; detecting, by the image capture device, a fiducial marker displayed via an electronic paper display connected to an Internet of Things, IoT, device located in an environment that contains a plurality of IoT devices (104A - 104C); extracting an identifier for the IoT device from the fiducial marker ; using the identifier for the IoT device to establish the network connection with the IoT device via the interface ; obtaining, via the network connection , a property of the IoT device ; determining, based on a known shape and a known size of a target point configured within the fiducial marker , an orientation and a position of the IoT device in the environment relative to the head-mounted display device ; and using the orientation and the position of the IoT device in the environment relative to the head-mounted display device to display data in association with the IoT device based at least in part on the property of the IoT device so that it appears the data is being projected on to the IoT device .
A rotor for a synchronous reluctance motor, wherein the rotor has a cross-section with an outer circumference and a number of circle sectors, wherein each circle sector has a q axis and a number of flow barriers , wherein each flow barrier is designed to be symmetrical with respect to the q axis and comprises the following: • two ends , which are each separated from the outer circumference by a tangentially arranged web , • a center line that extends between the two ends , • a width (FB) to be measured orthogonally to the center line , and • a permanent magnet arranged on the q axis, wherein • the widths (FB) of the flow barriers, in each case measured adjacently to the relevant permanent magnet , do not differ from one another by more than 20%, • all permanent magnets have the same permanent magnet height (PH) in the direction of the q axis and the same permanent magnet width (PB) orthogonally to the q axis, characterized in that • the ratio of the permanent magnet height (PH) to the width (FB) of the associated flow barrier , measured adjacently to the relevant permanent magnet , is in the range of 0.5 to 0.9. • two ends , which are each separated from the outer circumference by a tangentially arranged web , • a center line that extends between the two ends , • a width (FB) to be measured orthogonally to the center line , and • a permanent magnet arranged on the q axis, wherein • the widths (FB) of the flow barriers, in each case measured adjacently to the relevant permanent magnet , do not differ from one another by more than 20%, • all permanent magnets have the same permanent magnet height (PH) in the direction of the q axis and the same permanent magnet width (PB) orthogonally to the q axis, characterized in that • the ratio of the permanent magnet height (PH) to the width (FB) of the associated flow barrier , measured adjacently to the relevant permanent magnet , is in the range of 0.5 to 0.9.