mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing an intelligent response on an electronic device, the method comprising: receiving a command from a user of the electronic device; analyzing the command; generating, based on the analyzed command, at least one intelligent response corresponding to the command and an actual response corresponding to the command; wherein the actual response corresponding to the command comprises a control signal to be transmitted to at least one remote device for controlling, in response to the command, the at least one remote device; the at least one intelligent response including a sound effect associated with the command; determining, with at least one GPS, a location of the electronic device relative to a known location of the at least one remote device performing a physical action corresponding to the actual response; characterized in that the method further comprises: outputting, by the electronic device, the actual response and the at least one intelligent response including the sound effect with a sound volume that varies according to a distance between the location of the electronic device and the known location of the at least one remote device. receiving a command from a user of the electronic device; analyzing the command; generating, based on the analyzed command, at least one intelligent response corresponding to the command and an actual response corresponding to the command; wherein the actual response corresponding to the command comprises a control signal to be transmitted to at least one remote device for controlling, in response to the command, the at least one remote device; the at least one intelligent response including a sound effect associated with the command; determining, with at least one GPS, a location of the electronic device relative to a known location of the at least one remote device performing a physical action corresponding to the actual response; characterized in that the method further comprises: outputting, by the electronic device, the actual response and the at least one intelligent response including the sound effect with a sound volume that varies according to a distance between the location of the electronic device and the known location of the at least one remote device.
A computer-implemented method , comprising: executing , on an edge computing device, an application with a first version of a machine learning model; receiving , to the edge computing device, a second version of the machine learning model; characterized in that the method further comprises: receiving , to the edge computing device, new configuration data for the application that specifies use of the second version; and in response to detecting the new configuration data, causing the application while executing to automatically switch to the second version of the machine learning model, wherein machine learning model versions are stored in a local storage on the edge computing device, wherein the second version of the machine learning model is enabled to be mounted from the local storage on the edge computing device into an application container in which the application is executing. executing , on an edge computing device, an application with a first version of a machine learning model; receiving , to the edge computing device, a second version of the machine learning model; characterized in that the method further comprises: receiving , to the edge computing device, new configuration data for the application that specifies use of the second version; and in response to detecting the new configuration data, causing the application while executing to automatically switch to the second version of the machine learning model, wherein machine learning model versions are stored in a local storage on the edge computing device, receiving , to the edge computing device, new configuration data for the application that specifies use of the second version; and in response to detecting the new configuration data, causing the application while executing to automatically switch to the second version of the machine learning model, wherein machine learning model versions are stored in a local storage on the edge computing device,
A medical device system for controlling delivery of stimulation pulses, comprising: a sensing device to sense a cardiac signal of a patient and to emit a trigger signal in response to the sensed cardiac signal; a delivery device to receive the trigger signal and deliver pulses to the patient in response to the emitted trigger signal; and a processor positioned within the sensing device, characterised in that the processor is configured to determine whether the sensed cardiac signal exceeds a possible P-wave threshold, compare a portion of the sensed cardiac signal to a P-wave template, the P-wave template defining a sensing window having a length less than a width of the P-wave, confirm an occurrence of a P-wave signal in response to the comparing, emit the trigger signal in response to the occurrence of a P-wave signal being confirmed, and inhibit delivery of the emitting signal in response to the occurrence of a P-wave signal not being confirmed. a sensing device to sense a cardiac signal of a patient and to emit a trigger signal in response to the sensed cardiac signal; a delivery device to receive the trigger signal and deliver pulses to the patient in response to the emitted trigger signal; and a processor positioned within the sensing device, characterised in that the processor is configured to determine whether the sensed cardiac signal exceeds a possible P-wave threshold, compare a portion of the sensed cardiac signal to a P-wave template, the P-wave template defining a sensing window having a length less than a width of the P-wave, confirm an occurrence of a P-wave signal in response to the comparing, emit the trigger signal in response to the occurrence of a P-wave signal being confirmed, and inhibit delivery of the emitting signal in response to the occurrence of a P-wave signal not being confirmed.
A dart game apparatus comprising: a body part in which a dart target is installed on a front surface; a support unit including a coupling unit coupled to an upper side of the body part and an extension unit formed to extend toward a front surface of the coupling unit; characterized in that the apparatus comprises a lid unit rotatably coupled to the support unit through at least one hinge . a body part in which a dart target is installed on a front surface; a support unit including a coupling unit coupled to an upper side of the body part and an extension unit formed to extend toward a front surface of the coupling unit; characterized in that the apparatus comprises a lid unit rotatably coupled to the support unit through at least one hinge .
Handheld lighting device having a rechargeable battery receiving region (12a-d), a pivoting apparatus (14a-d), a lighting apparatus (16a-d) and a coupling means (18a-d) which is intended to make contact with a handheld power tool rechargeable battery (20a-d) arranged in the rechargeable battery receiving region (12a-d) and which is arranged between the lighting apparatus (16a-d) and the rechargeable battery receiving region (12a-d) in at least one operating state, wherein the pivoting apparatus (14a-d) is at least partially arranged in a vicinity (22a-d) of the coupling means (18a-d), wherein the pivoting apparatus (14a-c) has at least one pivot axis (26a-c) which, in a coupling direction (28a-c) of the coupling means (18a-c), is arranged behind the coupling means (18a-c), characterized in that the lighting apparatus (16a-d) has a main extension direction which is perpendicular to the pivot axis and which is aligned perpendicular to a main emission direction of the lighting apparatus (16a-d).
A paste composition containing: (A) copper fine particles having a thickness or minor axis of 10 to 500 nm, calculated as an average value of 10 copper fine particles randomly selected based on an observation image of a SEM, the average value being an arithmetic mean value, and coated with amino alcohol represented by the following chemical formula , wherein an amine compound including at least one selected from alkylamines and alkoxyamines adheres to a surface of the copper fine particles; and (B) an organic solvent, wherein a compounding amount of (B) the organic solvent is 2 to 20 parts by mass relative to 100 parts by mass of (A) the copper fine particles, where R 1 s may be identical or different, each independently represent a hydrogen atom, an alkyl group with a carbon number of 1 to 4, a hydroxy group, or a methoxy group, n and m each represent an integer of 0 to 10, and m + n is 10 or less. (A) copper fine particles having a thickness or minor axis of 10 to 500 nm, calculated as an average value of 10 copper fine particles randomly selected based on an observation image of a SEM, the average value being an arithmetic mean value, and coated with amino alcohol represented by the following chemical formula , wherein an amine compound including at least one selected from alkylamines and alkoxyamines adheres to a surface of the copper fine particles; and (B) an organic solvent, wherein a compounding amount of (B) the organic solvent is 2 to 20 parts by mass relative to 100 parts by mass of (A) the copper fine particles, where R 1 s may be identical or different, each independently represent a hydrogen atom, an alkyl group with a carbon number of 1 to 4, a hydroxy group, or a methoxy group, n and m each represent an integer of 0 to 10, and m + n is 10 or less.
Method for operating an induction hob , the induction hob comprising a power circuit portion with at least one switching element adapted to provide pulsed electric power to an induction coil and a control entity for controlling operating parameters of the switching element, the method being characterised by the steps of: - performing a control loop with control cycles in order to detect coupling changes between the induction coil and a piece of cookware, said control cycles comprising the steps of: ∘ receiving frequency information (f curr ) and power information (P curr ) at said control entity ; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr ) and said power information (P curr ); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; - deciding, based on the comparison result, whether to: ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element. - performing a control loop with control cycles in order to detect coupling changes between the induction coil and a piece of cookware, said control cycles comprising the steps of: ∘ receiving frequency information (f curr ) and power information (P curr ) at said control entity ; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr ) and said power information (P curr ); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; ∘ receiving frequency information (f curr ) and power information (P curr ) at said control entity ; ∘ calculating at least one relation coefficient (Ds', Ds") based on said frequency information (f curr ) and said power information (P curr ); and ∘ comparing said relation coefficient (Ds', Ds") with a relation coefficient boundary, thereby deriving a comparison result; - deciding, based on the comparison result, whether to: ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element. ∘ perform a new control cycle of said control loop or whether to ∘ stop said control loop and said provision of pulsed electric power to the induction coil and restart said control loop after updating an operating parameter of the switching element.
A method for controlling video processing, wherein the method comprises: receiving a stream of images emanating from an image sensor , evaluating the contents of an image in the stream , wherein evaluating the contents of the image in the stream comprises analysis related to masking of or anonymizing the image frame , while the analysis of the image is ongoing, forwarding in chronological order a part of the image stream , which part is antecedent the image being evaluated, to a video encoder , and adding at least a first empty frame at the end of an encoded image stream corresponding to the forwarded image stream , wherein the at least first empty frame does not comprise any encoded difference in relation to a previous frame of the encoded image stream . receiving a stream of images emanating from an image sensor , evaluating the contents of an image in the stream , wherein evaluating the contents of the image in the stream comprises analysis related to masking of or anonymizing the image frame , while the analysis of the image is ongoing, forwarding in chronological order a part of the image stream , which part is antecedent the image being evaluated, to a video encoder , and adding at least a first empty frame at the end of an encoded image stream corresponding to the forwarded image stream , wherein the at least first empty frame does not comprise any encoded difference in relation to a previous frame of the encoded image stream .
A radio communications method, comprising: performing, by a base station, clear channel assessment, CCA, to preempt an unlicensed carrier; sending, by the base station using the preempted unlicensed carrier, a plurality of pieces of downlink control information to a terminal using one downlink subframe, wherein the downlink control information comprises uplink scheduling indication information, and the uplink scheduling indication information is used to instruct the terminal to send uplink data in a plurality of uplink subframes on an unlicensed carrier (SCell); wherein the uplink scheduling indication information comprises start uplink subframe location information and a quantity of consecutive uplink subframes. performing, by a base station, clear channel assessment, CCA, to preempt an unlicensed carrier; sending, by the base station using the preempted unlicensed carrier, a plurality of pieces of downlink control information to a terminal using one downlink subframe, wherein the downlink control information comprises uplink scheduling indication information, and the uplink scheduling indication information is used to instruct the terminal to send uplink data in a plurality of uplink subframes on an unlicensed carrier (SCell); wherein the uplink scheduling indication information comprises start uplink subframe location information and a quantity of consecutive uplink subframes.
A method for filling a container with a pourable product by means of a modulating valve provided with a shutter movable through a plurality of positions; the method comprising the steps of: - getting a first current value of a first quantity indicative of the position of said shutter ; - getting a second current value of a second quantity indicative of a pressure of said pourable product; - controlling the position of said shutter based on a third current value indicative of an actual flow rate of said pourable product flowing through said valve ; the method further comprising the steps of: - providing a first relation (R1; T1) between values of said second quantity and respective values of a reference flow rate of said pourable product flowing through said valve when said shutter is at a given reference position; - providing a second relation (R2; T2) between values of said first quantity and respective values of a parameter, being defined by a ratio between said actual flow rate and said reference flow rate and being invariant with respect to pressure variations; - determining a fourth current value of said parameter through said second relation (R2; T2) according to said first current value; - determining a fifth current value of said reference flow rate through said first relation (R1; T1) according to said second current value; and - computing said third current value from said fourth current value and said fifth current value. - getting a first current value of a first quantity indicative of the position of said shutter ; - getting a second current value of a second quantity indicative of a pressure of said pourable product; - controlling the position of said shutter based on a third current value indicative of an actual flow rate of said pourable product flowing through said valve ; - providing a first relation (R1; T1) between values of said second quantity and respective values of a reference flow rate of said pourable product flowing through said valve when said shutter is at a given reference position; - providing a second relation (R2; T2) between values of said first quantity and respective values of a parameter, being defined by a ratio between said actual flow rate and said reference flow rate and being invariant with respect to pressure variations; - determining a fourth current value of said parameter through said second relation (R2; T2) according to said first current value; - determining a fifth current value of said reference flow rate through said first relation (R1; T1) according to said second current value; and - computing said third current value from said fourth current value and said fifth current value.
A laminate suitable as a light-transmissive electrode layer and as an electron transport layer of an organic thin-film solar cell , which organic thin-film solar cell includes the light-transmissive electrode layer , the electron transport layer , an organic semiconductor layer , a hole transport layer and a collector electrode layer in this order, the laminate comprising: a member that serves as the light-transmissive electrode layer ; and a titanium oxide layer that is disposed on the member serving as the light-transmissive electrode layer and serves as the electron transport layer , wherein the titanium oxide layer has a thickness of not less than 1.0 nm and not more than 200.0 nm, characterized in that the titanium oxide layer contains indium oxide and metallic indium, InOx/Ti is not less than 0.50 and not more than 20.00 in atomic ratio, and InM/Ti is not more than 0.050 in atomic ratio, where an elemental titanium content is represented by Ti, an indium oxide content is represented by InOx, and a metallic indium content is represented by InM. a member that serves as the light-transmissive electrode layer ; and a titanium oxide layer that is disposed on the member serving as the light-transmissive electrode layer and serves as the electron transport layer , wherein the titanium oxide layer has a thickness of not less than 1.0 nm and not more than 200.0 nm, characterized in that the titanium oxide layer contains indium oxide and metallic indium, InOx/Ti is not less than 0.50 and not more than 20.00 in atomic ratio, and InM/Ti is not more than 0.050 in atomic ratio, where an elemental titanium content is represented by Ti, an indium oxide content is represented by InOx, and a metallic indium content is represented by InM.
A data transmission method, comprising: sending , by a base station, a first downlink control channel in a first sub-band, wherein the first downlink control channel is configured to schedule data in a first time-domain range, and a frequency-domain range of the scheduled data in the first time-domain range occupies a second sub-band; if a bandwidth of the second sub-band is larger than a bandwidth of the first sub-band, transmitting , by the base station, data based on the first sub-band before a first moment in the first time-domain range and transmitting, by the base station, data based on the second sub-band after a second moment in the first time-domain range; wherein a time interval between the first moment and the second moment is configured for a terminal to adjust a receiving bandwidth, and no data transmission is performed during the time interval. sending , by a base station, a first downlink control channel in a first sub-band, wherein the first downlink control channel is configured to schedule data in a first time-domain range, and a frequency-domain range of the scheduled data in the first time-domain range occupies a second sub-band; if a bandwidth of the second sub-band is larger than a bandwidth of the first sub-band, transmitting , by the base station, data based on the first sub-band before a first moment in the first time-domain range and transmitting, by the base station, data based on the second sub-band after a second moment in the first time-domain range; wherein a time interval between the first moment and the second moment is configured for a terminal to adjust a receiving bandwidth, and no data transmission is performed during the time interval.
A method for controlling at least one radial fan in a cooling system , in which the radial fan comprises a housing in which a shaft is rotatably mounted which, on one end, receives at least one impeller of a compressor , which is fixed on the housing , and the housing comprises at least one radial bearing and at least one axial gas bearing , by means of which the shaft is rotatably mounted in the housing , and an engine driven by a rotor and stator , said engine driving the shaft , characterized in, that a vibrometer is aligned radially to the shaft and a further vibrometer is allocated to an end-face of the shaft and positioned in the rotational axis of the shaft and that operating points of the shaft are detected by the vibrometers , which are allocated to the shaft , and are forwarded on to a controller for ascertaining an operating state of the radial fan .
Charging apparatus for the dimensionally stable heat treatment of workpieces, in particular those of a disk or ring shape, having a charging rack for horizontally mounting the workpiece , characterized in that at least three screw-type mandrels or ball joint mandrels are arranged on the charging rack , wherein the ball joint mandrels having a base plate with a female thread , a screw element with a male thread matched to the female thread and a head that has a spherical segment surface, and a pressure piece matched precisely to the spherical segment surface of the head and arranged movably thereon.