mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining at least one parameter of an electric machine , wherein the electric machine has multiple motor phases (U, V, W), comprising the steps: - generating time variable voltages (U1, U2, U3) between the motor phases (U, V, W) of the electric machine , - analogue-digital converting of the time variable voltages (U1, U2, U3), - analogue-digital converting of currents (I1, I2, I3) in the motor phases (U, V, W) occurring as a function of the time variable voltages (U1, U2, U3), and - determining of the parameter as a function of the analogue-digital converted voltages and the analogue-digital converted currents, characterized in that - sampling of a respective voltage and of a corresponding current is done at identical sampling time, and - from the voltages and the currents, corresponding bitstreams (BS) are generated using a respective sigma-delta modulator , wherein the sigma-delta modulators have an identical design, - wherein the bitstreams (BS) each are filtered using digital filters of higher order for generating digital sample values (AW) which are successive in time, wherein the digital filters have identical filter characteristics, and - wherein the at least one parameter is selected from the set of parameters: - differential longitudinal inductances, - differential transverse inductances, - cross saturation, - resistances, and - impedances. - generating time variable voltages (U1, U2, U3) between the motor phases (U, V, W) of the electric machine , - analogue-digital converting of the time variable voltages (U1, U2, U3), - analogue-digital converting of currents (I1, I2, I3) in the motor phases (U, V, W) occurring as a function of the time variable voltages (U1, U2, U3), and - determining of the parameter as a function of the analogue-digital converted voltages and the analogue-digital converted currents, - sampling of a respective voltage and of a corresponding current is done at identical sampling time, and - from the voltages and the currents, corresponding bitstreams (BS) are generated using a respective sigma-delta modulator , wherein the sigma-delta modulators have an identical design, - wherein the bitstreams (BS) each are filtered using digital filters of higher order for generating digital sample values (AW) which are successive in time, wherein the digital filters have identical filter characteristics, and - wherein the at least one parameter is selected from the set of parameters: - differential longitudinal inductances, - differential transverse inductances, - cross saturation, - resistances, and - impedances. - differential longitudinal inductances, - differential transverse inductances, - cross saturation, - resistances, and - impedances.
A method for operating a robotic cleaner, the method comprising: generating at least one map including information regarding a space to be cleaned by using information measured by at least one sensor ; setting a cleaning path by using the at least one map; and cleaning according to the cleaning path, characterised in that the at least one map includes at least one of a first map that indicates a cleaning complete state, a second map that indicates reachability of the robotic cleaner, and a third map that indicates an area difficult to be cleaned. generating at least one map including information regarding a space to be cleaned by using information measured by at least one sensor ; setting a cleaning path by using the at least one map; and cleaning according to the cleaning path, characterised in that the at least one map includes at least one of a first map that indicates a cleaning complete state, a second map that indicates reachability of the robotic cleaner, and a third map that indicates an area difficult to be cleaned.
A method of wireless communication, said method comprising, setting a first field of a Physical Layer Convergence Protocol, PLCP, protocol data unit, PPDU, to indicate a selected high efficiency long training field, HE-LTF, mode; according to said first field: setting a second field of said PPDU to indicate enablement of Dual Sub-Carrier Modulation, DCM, on a data field of said PPDU; and setting a third field of said PPDU to indicate enablement of space time block coding, STBC, on said data field of said PPDU with said second field set to indicate said enablement of DCM; and transmitting said PPDU. setting a second field of said PPDU to indicate enablement of Dual Sub-Carrier Modulation, DCM, on a data field of said PPDU; and setting a third field of said PPDU to indicate enablement of space time block coding, STBC, on said data field of said PPDU with said second field set to indicate said enablement of DCM; and transmitting said PPDU.
A heat exchanger for a solar photovoltaic panel comprising: backing plate comprising U-channelling depressed in an upper surface thereof; and flexible tubing positioned within the U-channelling configured to carry fluid; wherein the heat exchanger is configured to be positioned in thermal contact with a solar panel, with the flexible tubing between the backing plate and solar photovoltaic panel to facilitate heat exchange between the flexible tubing and the solar panel; wherein the U-channelling is configured to provide a contact surface area between the surface of the U-channelling and the surface of the flexible tubing ; characterized in that the flexible tubing is configured to be pressurised to expand within the U-channelling to increase the contact surface area. backing plate comprising U-channelling depressed in an upper surface thereof; and flexible tubing positioned within the U-channelling configured to carry fluid; wherein the heat exchanger is configured to be positioned in thermal contact with a solar panel, with the flexible tubing between the backing plate and solar photovoltaic panel to facilitate heat exchange between the flexible tubing and the solar panel; wherein the U-channelling is configured to provide a contact surface area between the surface of the U-channelling and the surface of the flexible tubing ; characterized in that the flexible tubing is configured to be pressurised to expand within the U-channelling to increase the contact surface area.
An aerosol product, which comprises a a pressurisable container; b a base formulation; and c a propellant; wherein the propellant is an insoluble compressed gas mixed with 5 to 15% of one or more liquefied gasses by weight of the base formulation and wherein the pressure in the container is from 10×10 5 to 11×10 5 Pa (10 to 11 bar). a a pressurisable container; b a base formulation; and c a propellant;
A compound of formula (IVa), (IVb), (IVc) or mesomeric forms thereof: wherein mCat+ or mAn- is an organic or inorganic positively/negatively charged counterion and m is an integer 0-3; n is an integer 1-5; and q is an integer from 1-6. wherein mCat+ or mAn- is an organic or inorganic positively/negatively charged counterion and m is an integer 0-3; n is an integer 1-5; and q is an integer from 1-6.
A baked product characterized in that it is obtained by adding, to the ingredients of the baked product, microalgal flour comprising at least partially lysed cells in the form of granules having the three following characteristics : - a monomodal particle size distribution, measured on a Coulter® LS laser particle size analyzer, of between 2 and 400 μm, centered on a particle diameter (D mode) between 5 and 15 μm, - flow grades, determined according to a test A, between 0.5% and 60% by weight for the oversize at 2000 μm, between 0.5% and 60% by weight for the oversize at 1400 μm and between 0.5% and 95 % by weight for the oversize at 800 μm, - a degree of wettability, expressed according to a test B, by the height of the product decanted in a beaker, at a value of between 0 and 4 cm, preferably between 0 and 2 cm, and more preferentially between 0 and 0.5 cm. - a monomodal particle size distribution, measured on a Coulter® LS laser particle size analyzer, of between 2 and 400 μm, centered on a particle diameter (D mode) between 5 and 15 μm, - flow grades, determined according to a test A, between 0.5% and 60% by weight for the oversize at 2000 μm, between 0.5% and 60% by weight for the oversize at 1400 μm and between 0.5% and 95 % by weight for the oversize at 800 μm, - a degree of wettability, expressed according to a test B, by the height of the product decanted in a beaker, at a value of between 0 and 4 cm, preferably between 0 and 2 cm, and more preferentially between 0 and 0.5 cm.
A system for providing an exacerbation risk score for a respiratory disease of a patient, the system comprising: a measurement unit configured for measuring a heart signal and/or a blood circulation signal of a patient , and configured for providing corresponding measurement data ; a detection unit configured for receiving the measurement data and for detecting a cough event and/or a sneeze event of the patient in the measurement data . wherein the detection unit is configured for detecting the cough event by analyzing an inter-beat interval of the heart signal, and/or wherein the detection unit is configured for detecting the sneeze event by analyzing a heart rate of the heart signal and a blood pressure of the blood circulation signal; a calculation unit configured for calculating an exacerbation risk score for a respiratory disease of the patient based on the detected cough event and/or the detected sneeze event ; and an interface unit configured for providing the exacerbation risk score to the patient and/or to a physician. a measurement unit configured for measuring a heart signal and/or a blood circulation signal of a patient , and configured for providing corresponding measurement data ; a detection unit configured for receiving the measurement data and for detecting a cough event and/or a sneeze event of the patient in the measurement data . wherein the detection unit is configured for detecting the cough event by analyzing an inter-beat interval of the heart signal, and/or wherein the detection unit is configured for detecting the sneeze event by analyzing a heart rate of the heart signal and a blood pressure of the blood circulation signal; wherein the detection unit is configured for detecting the cough event by analyzing an inter-beat interval of the heart signal, and/or wherein the detection unit is configured for detecting the sneeze event by analyzing a heart rate of the heart signal and a blood pressure of the blood circulation signal; a calculation unit configured for calculating an exacerbation risk score for a respiratory disease of the patient based on the detected cough event and/or the detected sneeze event ; and an interface unit configured for providing the exacerbation risk score to the patient and/or to a physician.
Semi-rigid boat carrying assembly comprising a hull , a consolidation structure , a floor (P) and its livettes , side and hollow inflated rolls , a central arrangement on the floor (P) comprising a lower part , a rear engine characterized in that : - For a forward lift, port and starboard side at the central location storage , the hull is pierced with respective wells which let lift forward inflated rolls in translational locking and rotation by servo mechanisms mounted in protective housings taken from the structural elements of the boat, floor, livet and consolidation structure , - each front lift wing comprises a so-called horizontal portion with a inflated rolled wing tip extender , and a so-called vertical portion which comprises a vertical end curving towards the center of the boat, - each front lift wing is configured so that its so-called vertical portion is at least partially retracted inside the lower part 170, during its storage, - and for a rear lift, the assembly comprises one or more load-bearing wings. - For a forward lift, port and starboard side at the central location storage , the hull is pierced with respective wells which let lift forward inflated rolls in translational locking and rotation by servo mechanisms mounted in protective housings taken from the structural elements of the boat, floor, livet and consolidation structure , - each front lift wing comprises a so-called horizontal portion with a inflated rolled wing tip extender , and a so-called vertical portion which comprises a vertical end curving towards the center of the boat, - each front lift wing is configured so that its so-called vertical portion is at least partially retracted inside the lower part 170, during its storage, - and for a rear lift, the assembly comprises one or more load-bearing wings.
A method of managing a user equipment, UE, (110; 200; 700) having a first subscription associated with a first subscriber identity module, SIM, (204; 716) and a second subscription associated with a second SIM (204; 716), the method comprising: receiving and decoding communications from a node (130; 140) at the UE, (110; 200; 700) during a first subscription communication mode associated with the first subscription; determining a scheduling rate for communications between the UE and the node; when the determined scheduling rate is lower than a threshold and in response to a communication from the node to the UE, sending , at a certain time period prior to a tune away period in which the UE communicates in a second subscription communication mode associated with the second subscription, at least one NACK message from the UE to the node during the first subscription communication mode even though the communication has been properly received and decoded; entering the tune away period in which the UE communicates in the second subscription communication mode; and after the tune away period ends and during the first subscription communication mode, receiving communications at the UE from the node and responding with an ACK message to acknowledge the receipt of the communication from the node to the UE. receiving and decoding communications from a node (130; 140) at the UE, (110; 200; 700) during a first subscription communication mode associated with the first subscription; determining a scheduling rate for communications between the UE and the node; when the determined scheduling rate is lower than a threshold and in response to a communication from the node to the UE, sending , at a certain time period prior to a tune away period in which the UE communicates in a second subscription communication mode associated with the second subscription, at least one NACK message from the UE to the node during the first subscription communication mode even though the communication has been properly received and decoded; entering the tune away period in which the UE communicates in the second subscription communication mode; and after the tune away period ends and during the first subscription communication mode, receiving communications at the UE from the node and responding with an ACK message to acknowledge the receipt of the communication from the node to the UE.
A method comprising: performing, by a vehicle weather radar system that comprises one or more processors and is onboard a vehicle , a weather radar scan of an area of sky; generating, by the vehicle weather radar system during at least part of an interval between the weather radar scan and a subsequent weather radar scan, a radar transmission tuned to detect at least one of birds or bats ; receiving , by the vehicle weather radar system, reflected radar signals in response to the radar transmission; determining , by the vehicle weather radar system, the reflected radar signals comprise data indicative of detected birds or bats; generating , by the vehicle weather radar system, an output based at least in part on the data indicative of the detected birds or bats; and performing, by the vehicle weather radar system after receiving the reflected radar signals, the subsequent weather radar scan of the area of sky. performing, by a vehicle weather radar system that comprises one or more processors and is onboard a vehicle , a weather radar scan of an area of sky; generating, by the vehicle weather radar system during at least part of an interval between the weather radar scan and a subsequent weather radar scan, a radar transmission tuned to detect at least one of birds or bats ; receiving , by the vehicle weather radar system, reflected radar signals in response to the radar transmission; determining , by the vehicle weather radar system, the reflected radar signals comprise data indicative of detected birds or bats; generating , by the vehicle weather radar system, an output based at least in part on the data indicative of the detected birds or bats; and performing, by the vehicle weather radar system after receiving the reflected radar signals, the subsequent weather radar scan of the area of sky.
A seat post assembly comprising: an outer tube ; an inner tube movably disposed upwards and downwards in the outer tube , and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube , an outer surface of the bottom end of the inner tube having a protrusion; a sealing element disposed on the top end of the outer tube and filling a gap between the outer tube and the inner tube ; and a bushing rotatably disposed on the top end of the outer tube and penetrated by the inner tube , the bushing including an exposed portion located in the sealing element or the outer tube in such a manner that the exposed portion is not shielded and can be touchable, and a barrel portion coaxially connected with the exposed portion and located in the outer tube and provided with a bottom abutted against the protrusion of the inner tube . an outer tube ; an inner tube movably disposed upwards and downwards in the outer tube , and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube , an outer surface of the bottom end of the inner tube having a protrusion; a sealing element disposed on the top end of the outer tube and filling a gap between the outer tube and the inner tube ; and a bushing rotatably disposed on the top end of the outer tube and penetrated by the inner tube , the bushing including an exposed portion located in the sealing element or the outer tube in such a manner that the exposed portion is not shielded and can be touchable, and a barrel portion coaxially connected with the exposed portion and located in the outer tube and provided with a bottom abutted against the protrusion of the inner tube .
A method for presenting a representation of an augmented real-world setting using a mobile device, the method comprising: accessing a plurality of images, wherein the plurality of images comprises a first set of images depicting one or more objects and a second set of images depicting a real-world setting; detecting a real-world object within the first set of images, wherein detecting the real-world object comprises: estimating a shape of the real-world object based on image correspondences identified among the plurality of images; and estimating physical properties of the real-world object; detecting a real-world setting within the second set of images; automatically creating the object model of the detected real-world object based on the first set of images, the object model having dimensions based at least in part on estimated parameters intrinsic to an imaging device that captured the plurality of images; creating a setting model of the setting based on the second set of images; receiving information indicative of user input identifying a request that the setting be augmented; creating a modified setting model comprising the object model and the setting model, wherein creating the modified setting comprises estimating based on the estimated properties of the real-world object whether the object in a particular position is stable or whether it would crush another object; and presenting the modified setting model using the mobile device. accessing a plurality of images, wherein the plurality of images comprises a first set of images depicting one or more objects and a second set of images depicting a real-world setting; detecting a real-world object within the first set of images, wherein detecting the real-world object comprises: estimating a shape of the real-world object based on image correspondences identified among the plurality of images; and estimating physical properties of the real-world object; estimating a shape of the real-world object based on image correspondences identified among the plurality of images; and estimating physical properties of the real-world object; detecting a real-world setting within the second set of images; automatically creating the object model of the detected real-world object based on the first set of images, the object model having dimensions based at least in part on estimated parameters intrinsic to an imaging device that captured the plurality of images; creating a setting model of the setting based on the second set of images; receiving information indicative of user input identifying a request that the setting be augmented; creating a modified setting model comprising the object model and the setting model, wherein creating the modified setting comprises estimating based on the estimated properties of the real-world object whether the object in a particular position is stable or whether it would crush another object; and presenting the modified setting model using the mobile device.
A method of forming an engineered tissue construct, the method comprising: combining provided undifferentiated and/or substantially differentiated progenitor cells with a plurality of the nanoparticles and/or microparticles either formed from a biocompatible and biodegradable polymer selected from the group consisting of collagen, fibrin, gelatin, glycosaminoglycans (GAG), poly (hyaluronic acid), poly(sodium alginate), alginate, hyaluronan, agarose, poly(lactide)s, poly(glycolide)s, poly(lactide-co-glycolide)s, poly(lactic acid)s, poly(glycolic acid)s, poly(lactic acid-co-glycolic acid)s, polycaprolactone, polycarbonates, polyesteramides, polyanhydrides, poly(amino acids), polyorthoesters, polyacetyls, polycyanoacrylates, polyetheresters, poly(dioxanone)s, poly(alkylene alkylate)s, copolymers of polyethylene glycol and poly(lactide)s or poly(lactide-co-glycolide)s, biodegradable polyurethanes, and blends and/or copolymers thereof, or from calcium phosphate material, said plurality of nanoparticles and/or microparticles include at least one bioactive agent so that the nanoparticles and/or microparticles are dispersed and suspended with the undifferentiated and/or substantially differentiated progenitor cells in a culture medium; and culturing the suspension of nanoparticles and/or microparticles and undifferentiated and/or substantially differentiated progenitor cells in a well having a defined shape to form a self-assembled cell aggregate, the shape of the self-assembled cell aggregate being defined by surfaces of the well, wherein the undifferentiated and/or substantially differentiated progenitor cells comprise a population of chondrogenic cells and the chondrogenic cells endogenously produce an extracellular matrix when the population of chondrogenic cells is cultured in the annular well, and wherein the nanoparticles and/or microparticles include the at least one bioactive agent that is differentially and/or controllably released by the nanoparticles and/or HLZ:DPF microparticles, wherein the bioactive agent is selected from the group consisting of epidermal growth factor (EGF), hepatocyte growth factor (HGF), vascular endothelial growth factors (VEGF), fibroblast growth factors (bFGF), platelet-derived growth factors (PDGF), insulin-like growth factor, transforming growth factors, parathyroid hormone, parathyroid hormone related peptide, bone morphogenic proteins, transcription factors, growth differentiation factors, recombinant human growth factors and cartilage-derived morphogenic factors.