mhurhangee/patent-ind-claim-en huggingface dataset:
A near field communication, NFC, device , comprising: a power harvesting module ; a memory storing a list of application identifiers; and a controller , wherein the controller is configured to: receive a request for an application identifier from a reader device, access the list of application identifiers, determine, by accessing information in the list of application identifiers, whether an amount of power available to the NFC device is sufficient to execute an application corresponding to the application identifier, and characterized in that the controller is further configured to transmit the list of application identifiers to the reader device, so that the reader device is aware that some applications will not be executed upon request, wherein the list of application identifiers contains a field indicating whether the application corresponding to the application identifier can be executed in a given power mode, wherein the power mode is one of a plurality of power modes, wherein the field is a multi-bit field indicating the minimum power mode required by the application for execution of the application. a power harvesting module ; a memory storing a list of application identifiers; and a controller , wherein the controller is configured to: receive a request for an application identifier from a reader device, access the list of application identifiers, determine, by accessing information in the list of application identifiers, whether an amount of power available to the NFC device is sufficient to execute an application corresponding to the application identifier, and receive a request for an application identifier from a reader device, access the list of application identifiers, determine, by accessing information in the list of application identifiers, whether an amount of power available to the NFC device is sufficient to execute an application corresponding to the application identifier, and
Method for estimating the position and the speed of the rotor of an alternating current machine for a motor vehicle, comprising the following steps: the stator currents of the machine in the three-phase reference frame and the values of the stator voltages of the machine in the three-phase reference frame are measured, the components of the stator currents are determined in a two-phase reference frame as a function of the stator currents in the three-phase reference frame by Concordia transformation, the components of the stator voltages are determined in the two-phase reference frame as a function of the stator voltages in the three-phase reference frame by Concordia transformation, the speed of the rotor is determined iteratively as a function of the stator voltages in the two-phase reference frame and of setting parameters, the stator fluxes of the machine are determined in the two-phase reference frame as a function of the speed of the rotor and of rejection parameters, the expression of a stator flux on one axis of said two-phase reference frame being corrected using a rejection parameter that is a function of the stator resistance, of the stator current on the other axis of said two-phase reference frame, of the stator voltage on the other axis of said two-phase reference frame and of a setting parameter and the position of the rotor is determined as a function of the stator fluxes in the two-phase reference frame, of the stator currents in the two-phase reference frame and of the equivalent inductance. the stator currents of the machine in the three-phase reference frame and the values of the stator voltages of the machine in the three-phase reference frame are measured, the components of the stator currents are determined in a two-phase reference frame as a function of the stator currents in the three-phase reference frame by Concordia transformation, the components of the stator voltages are determined in the two-phase reference frame as a function of the stator voltages in the three-phase reference frame by Concordia transformation, the speed of the rotor is determined iteratively as a function of the stator voltages in the two-phase reference frame and of setting parameters, the stator fluxes of the machine are determined in the two-phase reference frame as a function of the speed of the rotor and of rejection parameters, the expression of a stator flux on one axis of said two-phase reference frame being corrected using a rejection parameter that is a function of the stator resistance, of the stator current on the other axis of said two-phase reference frame, of the stator voltage on the other axis of said two-phase reference frame and of a setting parameter and the position of the rotor is determined as a function of the stator fluxes in the two-phase reference frame, of the stator currents in the two-phase reference frame and of the equivalent inductance.
A rotor blade assembly for a turbomachine on the basis of a modular structure, wherein blade elements comprise at least one blade airfoil having a rotor blade under-structure , at least one footboard mounting part , wherein blade elements having at its one endings means for the purpose of an interchangeable connection among each other, wherein the connection of the airfoil with respect to other elements is based on a fixation in radial or quasi-radial extension compared to the axis of the rotor of the turbomachine, wherein the assembling of the blade airfoil in connection with the footboard mounting part is based on a friction-locked bonding actuated by adherence interconnecting, or the assembling of the blade airfoil in connection with the footboard mounting part based on the use of a metallic and/or ceramic surface fixing blade elements to each other, or the assembling of the blade airfoil in connection with the footboard mounting part is based on closure means with a detachable, permanent or semi-permanent fixed, wherein the footboard mounting part consists of at least two-folded elements , wherein the assembly of separated footboard mounting elements with respect to a foot-side elongated portion of the blade airfoil is conducted with a reciprocal guided coupling , wherein the footboard mounting elements have opposite cracks or clutches corresponding to the extending contour of the elongated portion of the shank under-structure , characterized in that the coupling of the separated footboard mounting elements is an axial coupling so that the footboard mounting elements are separated in axial direction, the opposite cracks or clutches of the footboard mounting elements are aligned to the axial direction and correspond to the axially extending contour of the elongated portion of the shank under-structure , wherein the axially extending contour of the elongated portion of the shank under structure corresponding approximately to the axially inflow plane of the airfoil, wherein the footboard mounting elements comprise at least one inner platform , a shank , a root portion having a fir-tree-shaped cross-sectional profile.
An apparatus comprising: a heating lamp to illuminate and heat an area of a layer of build materials wherein the build materials are one of a metallic and a plastic powder a laser source to generate a laser beam ; and a controller configured to: control the heating lamp to activate the heating lamp immediately prior to activation of the laser source to heat the build materials in the area of the layer of build materials to a temperature that is between about 100°C to about 400°C and below a temperature at which the build materials begin to melt; control the laser source to output a laser beam to melt the build materials in a portion of the heated area of the layer of build materials ; and deactivate the heating lamp immediately following deactivation of the laser source . a heating lamp to illuminate and heat an area of a layer of build materials wherein the build materials are one of a metallic and a plastic powder a laser source to generate a laser beam ; and a controller configured to: control the heating lamp to activate the heating lamp immediately prior to activation of the laser source to heat the build materials in the area of the layer of build materials to a temperature that is between about 100°C to about 400°C and below a temperature at which the build materials begin to melt; control the laser source to output a laser beam to melt the build materials in a portion of the heated area of the layer of build materials ; and deactivate the heating lamp immediately following deactivation of the laser source . control the heating lamp to activate the heating lamp immediately prior to activation of the laser source to heat the build materials in the area of the layer of build materials to a temperature that is between about 100°C to about 400°C and below a temperature at which the build materials begin to melt; control the laser source to output a laser beam to melt the build materials in a portion of the heated area of the layer of build materials ; and deactivate the heating lamp immediately following deactivation of the laser source .
An apparatus comprising: a body ; and a first portion coupled to the body and movable therewith, the first portion comprising: a rigidifying material positioned in a chamber defined by an envelope formed of a gas-impermeable material, wherein a pressure within the chamber is variable between at least a lower pressure state and a higher pressure state, in the higher pressure state the material is relatively flexible, and in the lower pressure state the material is relatively less flexible than in the higher pressure state, and a layer manipulateable by the rigidifying material , the layer has a first state when the pressure within the chamber is in the higher pressure state, in the first state the layer is formable by a target surface to take on a desired shape that is substantially a match of the target surface, the layer has a second state when the pressure within the chamber is in the lower pressure state, in the second state the layer maintains the desired shape and is substantially less formable than in the first state, characterised by a second portion disposed between the body and the first portion , the second portion configured to urge the layer to conform to the desired shape of the target surface.
A component mounting system adapted to monitor operation state of a component mounting apparatus comprising: a solder inspection device which is configured to compare a first coordinate information of solder , which is obtained through measurement of a substrate on which the solder is applied, with reference coordinate information to generate a second coordinate information corresponding to coordinate correction data and feed forward the second coordinate information to the component mounting apparatus; and a front end mounting inspection apparatus which is configured to inspect a mounting state of a component to generate a first measurement data after mounting said component on the substrate based on the second coordinate information; wherein the front end mounting inspection apparatus or an integrated management apparatus that is separately installed is configured to verify an operation state of a component mounting apparatus by comparing the second coordinate information that is corrected and fed forward by the solder inspection device and the first measurement data that is obtained by measuring the mounting state of the component, and wherein after verifying an operation state of a component mounting apparatus , the second coordinate information is modified based on verification result data to generate a third coordinate information, and the third coordinate information is transferred to the component mounting apparatus so that a component can be mounted by the component mounting apparatus based on the third coordinate information. a solder inspection device which is configured to compare a first coordinate information of solder , which is obtained through measurement of a substrate on which the solder is applied, with reference coordinate information to generate a second coordinate information corresponding to coordinate correction data and feed forward the second coordinate information to the component mounting apparatus; and a front end mounting inspection apparatus which is configured to inspect a mounting state of a component to generate a first measurement data after mounting said component on the substrate based on the second coordinate information; wherein the front end mounting inspection apparatus or an integrated management apparatus that is separately installed is configured to verify an operation state of a component mounting apparatus by comparing the second coordinate information that is corrected and fed forward by the solder inspection device and the first measurement data that is obtained by measuring the mounting state of the component, and wherein after verifying an operation state of a component mounting apparatus , the second coordinate information is modified based on verification result data to generate a third coordinate information, and the third coordinate information is transferred to the component mounting apparatus so that a component can be mounted by the component mounting apparatus based on the third coordinate information.
A method for optical distance measurements, wherein the method comprises carrying out Radar measurements, building a grid map comprising a plurality of elements based on the Radar measurements, wherein the method comprises extracting information about the dynamic state of each element , assigning the information to the respective element and carrying out Lidar measurements resulting in a Lidar point cloud , wherein the method comprises associating the Lidar point cloud with the grid map , characterized in that associating the Lidar point cloud with the grid map comprises projecting the Lidar point cloud into the grid map , wherein the method comprises determining for each point of the Lidar point cloud the nearest elements of the grid map , wherein the method comprises for each point of the Lidar point cloud determining the average of the dynamic probabilities of the nearest elements of the grid map and comparing the average with a predetermined threshold for classifying the point as static or dynamic, and wherein the method comprises classifying each point of the Lidar point cloud as dynamic or static, thereby determining the velocity of objects on which the radar waves have been reflected. wherein the method comprises carrying out Radar measurements, building a grid map comprising a plurality of elements based on the Radar measurements, wherein the method comprises extracting information about the dynamic state of each element , assigning the information to the respective element and carrying out Lidar measurements resulting in a Lidar point cloud , wherein the method comprises associating the Lidar point cloud with the grid map , characterized in that associating the Lidar point cloud with the grid map comprises projecting the Lidar point cloud into the grid map , wherein the method comprises determining for each point of the Lidar point cloud the nearest elements of the grid map , wherein the method comprises for each point of the Lidar point cloud determining the average of the dynamic probabilities of the nearest elements of the grid map and comparing the average with a predetermined threshold for classifying the point as static or dynamic, and wherein the method comprises classifying each point of the Lidar point cloud as dynamic or static, thereby determining the velocity of objects on which the radar waves have been reflected.
A method of producing a heat conductive sheet comprising fibrous fillers and a binder resin, wherein a ratio of the fibrous fillers that are not oriented in a direction of a thickness of the heat conductive sheet in all the fibrous fillers is 45 to 95%, the method comprising the steps of: dispersing the fibrous fillers in the binder resin to prepare a heat conductive sheet-forming composition; forming a molded block from the prepared heat conductive sheet-forming composition; slicing the formed molded block to form a heat conductive sheet; and characterized in that the method further comprises the step of pressing the sliced surface of the formed heat conductive sheet. dispersing the fibrous fillers in the binder resin to prepare a heat conductive sheet-forming composition; forming a molded block from the prepared heat conductive sheet-forming composition; slicing the formed molded block to form a heat conductive sheet; and characterized in that the method further comprises the step of pressing the sliced surface of the formed heat conductive sheet.
A method performed by a radio-network node for handling a data transmission from the radio-network node to a wireless device in a wireless communication network , the method comprising: transmitting data over a number of subframes to the wireless device , and a respective control part, associated with the data of each respective subframe, the respective control part comprising a feedback index indicating a transmission time of a feedback indication for each subframe of the data transmission to be sent from the wireless device in a feedback message to be common for said number of subframes of the data transmission, receiving from the wireless device each feedback indication in the feedback message common for said number of subframes of the data transmission according to the control parts of the transmitted subframes, where each feedback indication indicates a positive or negative feedback for each respective subframe of the data transmission from the radio-network node , where a negative feedback is used for both NACKed subframes that failed decoding and for actually not received subframes, and where the feedback message further indicates the number of Negative Acknowledged, NACKed, subframes out of the number of subframes of the data transmission that were actually received by the wireless device , and deciding whether or not to retransmit any of the subframes based on the respective feedback indication. transmitting data over a number of subframes to the wireless device , and a respective control part, associated with the data of each respective subframe, the respective control part comprising a feedback index indicating a transmission time of a feedback indication for each subframe of the data transmission to be sent from the wireless device in a feedback message to be common for said number of subframes of the data transmission, receiving from the wireless device each feedback indication in the feedback message common for said number of subframes of the data transmission according to the control parts of the transmitted subframes, where each feedback indication indicates a positive or negative feedback for each respective subframe of the data transmission from the radio-network node , where a negative feedback is used for both NACKed subframes that failed decoding and for actually not received subframes, and where the feedback message further indicates the number of Negative Acknowledged, NACKed, subframes out of the number of subframes of the data transmission that were actually received by the wireless device , and deciding whether or not to retransmit any of the subframes based on the respective feedback indication.
A delivery device comprising: an inner shaft having one or more delivery platforms for deployment of one or more intraluminal devices ; an outer sheath surrounding the inner shaft and configured to cover the one or more delivery platforms pre-deployment and to be withdrawn from at least one of the one or more delivery platforms as part of a deployment of the one or more intraluminal devices ; an outer sheath rack comprising a plurality of teeth , the outer sheath rack coupled to the outer sheath , wherein the plurality of teeth comprise a first plurality of teeth on a top of the outer sheath rack and a second plurality of teeth on a bottom of the outer sheath rack ; a handle housing , wherein the inner shaft and the outer sheath rack are at least partially positioned within the handle housing , the handle housing comprising at least one pawl configured to engage with the first plurality of teeth on the outer sheath rack to prevent re-sheathing of the outer sheath over the one or more delivery platforms after a deployment; a shuttle having a pair of deflection arms configured for selective engagement with the second plurality of teeth on the outer sheath rack ; a trigger mechanically linked to the shuttle such that actuation of the trigger causes movement of the shuttle which withdraws the outer sheath from covering the one or more delivery platforms . an inner shaft having one or more delivery platforms for deployment of one or more intraluminal devices ; an outer sheath surrounding the inner shaft and configured to cover the one or more delivery platforms pre-deployment and to be withdrawn from at least one of the one or more delivery platforms as part of a deployment of the one or more intraluminal devices ; an outer sheath rack comprising a plurality of teeth , the outer sheath rack coupled to the outer sheath , wherein the plurality of teeth comprise a first plurality of teeth on a top of the outer sheath rack and a second plurality of teeth on a bottom of the outer sheath rack ; a handle housing , wherein the inner shaft and the outer sheath rack are at least partially positioned within the handle housing , the handle housing comprising at least one pawl configured to engage with the first plurality of teeth on the outer sheath rack to prevent re-sheathing of the outer sheath over the one or more delivery platforms after a deployment; a shuttle having a pair of deflection arms configured for selective engagement with the second plurality of teeth on the outer sheath rack ; a trigger mechanically linked to the shuttle such that actuation of the trigger causes movement of the shuttle which withdraws the outer sheath from covering the one or more delivery platforms .
An electronic device comprising a circuitry configured to authenticate a second electronic device when the circuitry detects, based on a privacy preserving algorithm, that the two electronic devices are associated with the same body of a user , wherein the circuitry is configured to: exchange body-related information with the second electronic device using the privacy preserving algorithm by performing a privacy preserving biometric common characteristic body feature comparison; obtain first body-related information from sensors of the electronic device and to obtain second body-related information from the second electronic device ; detect if the first body-related information and the second body-related information relate to a common characteristic body feature; determine whether the first body-related information and the second body-related information match each other based on the comparison of the common characteristic body feature using the privacy preserving algorithm, the comparison being performed by determining a correlation between the first body-related information and the second body-related information; and authenticate the second electronic device if the first body-related information and the second body-related information match. exchange body-related information with the second electronic device using the privacy preserving algorithm by performing a privacy preserving biometric common characteristic body feature comparison; obtain first body-related information from sensors of the electronic device and to obtain second body-related information from the second electronic device ; detect if the first body-related information and the second body-related information relate to a common characteristic body feature; determine whether the first body-related information and the second body-related information match each other based on the comparison of the common characteristic body feature using the privacy preserving algorithm, the comparison being performed by determining a correlation between the first body-related information and the second body-related information; and authenticate the second electronic device if the first body-related information and the second body-related information match.