mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless charging station , comprising: a transmitter configured to transmit one or more periodic Alliance for Wireless Power, A4WP, beacons and one or more periodic Near Field Communication, NFC, polls; a detector configured to detect a response from an external device in response to the one or more A4WP beacons and the one or more periodic NFC polls and configured to identify the response as comprising a Bluetooth Low Energy, BLE, advertisement and a NFC load modulation, wherein in response to the detection, the detector is configured to perform an A4WP registration, wherein the A4WP registration comprises the detector being configured to determine whether the external device includes a built-in NFC capability and in response to determining that the external device does include a built-in NFC capability, the detector is configured to exchange maximum magnetic field parameters with the external device; and a controller including processing circuitry adapted to dynamically configure a magnetic field corresponding to the maximum field parameters for charging the identified external device. a transmitter configured to transmit one or more periodic Alliance for Wireless Power, A4WP, beacons and one or more periodic Near Field Communication, NFC, polls; a detector configured to detect a response from an external device in response to the one or more A4WP beacons and the one or more periodic NFC polls and configured to identify the response as comprising a Bluetooth Low Energy, BLE, advertisement and a NFC load modulation, wherein in response to the detection, the detector is configured to perform an A4WP registration, wherein the A4WP registration comprises the detector being configured to determine whether the external device includes a built-in NFC capability and in response to determining that the external device does include a built-in NFC capability, the detector is configured to exchange maximum magnetic field parameters with the external device; and a controller including processing circuitry adapted to dynamically configure a magnetic field corresponding to the maximum field parameters for charging the identified external device.
A dental implant comprising a coronal portion and a body portion that are continuous with one another, the coronal portion defining the proximal end of the implant and the body portion defining the distal end of the implant , wherein the proximal end of body portion is configured to have a larger overall diameter than the distal segment of coronal portion ; said body portion having at least one thread defined along its length from the apical end to the coronal end; said thread including at least two longitudinal recesses along the length of said body portion therein defining at least two flutes defined along the full length of said body portion , said flutes configured to collect bone when the dental implant is rotated and to have a proximal opening adjacent to said coronal portion , said flute proximal opening configured to render the longitudinal recess of said at least two flutes accessible from said coronal portion of said implant and provided for removing or introducing bone therethrough, wherein said at least two flutes are formed across the depth of said thread between a thread base and a lateral edge of the thread , characterized in that said flutes being configured to have a bottle neck profile across the base of the thread and the depth of thread , the bottle neck profile being formed by two shoulders forming a neck portion along the lateral edge of the thread and a recess formed along the base of the thread .
A power tool comprising: a rotatable arbor (42; 129; 242); a blade mounted on the arbor (42; 129; 242); a motor (16; 130; 218) to spin the arbor (42; 129; 242) and blade ; a detection system to detect when a person contacts the spinning blade ; a reaction system triggerable to perform an action to mitigate injury upon detection of the contact; and a conductive coupling connecting the detection system and the blade , where the conductive coupling includes a brush (140; 178; 186; 192), where the brush (140; 178; 186; 192) establishes an electrical connection with a moving part of the power tool , and where the brush maintains contact with the moving part of the power tool during at least 40 hours of cumulative time when the motor is spinning the arbor and blade without an interruption in the electrical connection sufficient to trigger the reaction system, characterised in that the moving part of the power tool is the arbor (42; 129; 242) and the brush (140; 178; 186; 192) establishes an electrical connection through axial contact with the arbor (42; 129; 242) by contacting a compliant component associated with the arbor (42; 129; 242), wherein the compliant component is a conductive packing. a rotatable arbor (42; 129; 242); a blade mounted on the arbor (42; 129; 242); a motor (16; 130; 218) to spin the arbor (42; 129; 242) and blade ; a detection system to detect when a person contacts the spinning blade ; a reaction system triggerable to perform an action to mitigate injury upon detection of the contact; and a conductive coupling connecting the detection system and the blade , where the conductive coupling includes a brush (140; 178; 186; 192), where the brush (140; 178; 186; 192) establishes an electrical connection with a moving part of the power tool , and where the brush maintains contact with the moving part of the power tool during at least 40 hours of cumulative time when the motor is spinning the arbor and blade without an interruption in the electrical connection sufficient to trigger the reaction system, characterised in that the moving part of the power tool is the arbor (42; 129; 242) and the brush (140; 178; 186; 192) establishes an electrical connection through axial contact with the arbor (42; 129; 242) by contacting a compliant component associated with the arbor (42; 129; 242), wherein the compliant component is a conductive packing.
A method for estimating a system response (θ) of an individual listener's brain to a sound signal stimulus , said system response (θ) representing the generation of an electroencephalography signal measured at a given measuring point of the listener's head by said sound signal stimulus , wherein a first sound signal containing the sound signal stimulus is presented to the ear of the listener, wherein a first audio signal corresponding to the first sound signal is generated, and first audio signal data (12, s) is extracted from the first audio signal , wherein using a first measuring electrode at said given measuring point on the listener's head, a first electroencephalography training signal is measured while the first sound signal containing the sound signal stimulus impinges on said ear of the listener, and a first measurement data set (34, r) is generated from the first electroencephalography training signal , wherein using a noise measuring electrode at a noise measuring point on the listener's head , a noise signal is measured while the first sound signal impinges on said ear of the listener, and a noise data set (36, w) is generated from the noise signal , wherein a Gaussian conditional probability density function for the system response (θ) of the listener's brain to said first audio signal data (12, s), given the observation of the first measurement data set (34, r), is derived from the first measurement data set (34, r) and the noise data set (36, w), and wherein said Gaussian conditional probability density function is taken as the system response (θ) of the listener's brain to the sound signal stimulus , with respect to said given measurement point . wherein a first sound signal containing the sound signal stimulus is presented to the ear of the listener, wherein a first audio signal corresponding to the first sound signal is generated, and first audio signal data (12, s) is extracted from the first audio signal , wherein using a first measuring electrode at said given measuring point on the listener's head, a first electroencephalography training signal is measured while the first sound signal containing the sound signal stimulus impinges on said ear of the listener, and a first measurement data set (34, r) is generated from the first electroencephalography training signal , wherein using a noise measuring electrode at a noise measuring point on the listener's head , a noise signal is measured while the first sound signal impinges on said ear of the listener, and a noise data set (36, w) is generated from the noise signal , wherein a Gaussian conditional probability density function for the system response (θ) of the listener's brain to said first audio signal data (12, s), given the observation of the first measurement data set (34, r), is derived from the first measurement data set (34, r) and the noise data set (36, w), and wherein said Gaussian conditional probability density function is taken as the system response (θ) of the listener's brain to the sound signal stimulus , with respect to said given measurement point .
Multiphase shifter device for electromagnetic waves, having a plurality of phase-shift modules each comprising at least two homothetic loops which are electrically insulated from one another and connected to one another by two separate inter-loop electrical connection elements at a first opening in each of said loops , each of said phase-shift modules being electrically connected to at least one other of said phase-shift modules by two intermodule connection elements which electrically connect a loop of each module at a second opening , characterized in that the phase-shift modules are arranged in a plurality of groups (20, 21, 22, 23, 24, 25; 20', 21', 22', 23'; 30, 31, 32, 40, 41, 42) of phase-shift modules , each group (20, 21, 22, 23, 24, 25; 20', 21', 22', 23'; 30, 31, 32, 40, 41, 42) comprising at least two interconnected concentric homothetic phase-shift modules , at least the outer loop of each group comprising intergroup connection means consisting of at least one pair of intergroup connection elements (18, 19; 18', 19') arranged at an opening in said loop .
A data verification method comprising steps performed by one or more computing devices of receiving code data defining a two-dimensional code encoding a user ID associated with verification data of the user in a remote database , the two-dimensional code including a low-resolution version of an image of the user's face; processing the received code data to decode the user ID; retrieving, from the remote database, the verification data associated with the decoded user ID, wherein the verification data includes a high-resolution version of the image of the user face that is computationally manipulated to have a calculated cryptographic hash value which satisfies a defined correspondence relationship with a cryptographic hash value calculated from the low-resolution version of the image; calculating a first cryptographic hash value from at least the low-resolution version of the image of the received code data; calculating a second cryptographic hash value from the manipulated high-resolution version of the image of the user face of the retrieved verification data,; and verifying the authenticity of the received code data based on a comparison of the first cryptographic hash value with the second cryptographic hash value. receiving code data defining a two-dimensional code encoding a user ID associated with verification data of the user in a remote database , the two-dimensional code including a low-resolution version of an image of the user's face; processing the received code data to decode the user ID; retrieving, from the remote database, the verification data associated with the decoded user ID, wherein the verification data includes a high-resolution version of the image of the user face that is computationally manipulated to have a calculated cryptographic hash value which satisfies a defined correspondence relationship with a cryptographic hash value calculated from the low-resolution version of the image; calculating a first cryptographic hash value from at least the low-resolution version of the image of the received code data; calculating a second cryptographic hash value from the manipulated high-resolution version of the image of the user face of the retrieved verification data,; and verifying the authenticity of the received code data based on a comparison of the first cryptographic hash value with the second cryptographic hash value.
A sunscreen cosmetic comprising: (a) a dibenzoylmethane derivative consisting of one or more selected from 2-methyl dibenzoylmethane, 4-methyl dibenzoylmethane, 4-isopropyl dibenzoylmethane, 4-tert-butyl dibenzoylmethane, 2,4-dimethyl dibenzoylmethane, 2,5-dimethyl dibenzoylmethane, 4,4'-diisopropyl dibenzoylmethane, 4-methoxy-4'-tert-butyl dibenzoylmethane, 2-methyl-5 -isopropyl-4' -methoxy dibenzoylmethane, 2-methyl-5-tert-butyl-4' -methoxy dibenzoylmethane, 2,4-dimethyl-4'-methoxy dibenzoylmethane, and 2,6-dimethyl-4-tert-butyl-4'-methoxy dibenzoylmethane; and (b) a powder that is surface-hydrophobized by treatment with a metal soap consisting of a higher fatty acid which is a straight or branched carboxylic acid having 8 to 24 carbon atoms and calcium or magnesium, or by combination treatment with a higher fatty acid which is a straight or branched carboxylic acid having 8 to 24 carbon atoms and calcium hydroxide or magnesium hydroxide. (a) a dibenzoylmethane derivative consisting of one or more selected from 2-methyl dibenzoylmethane, 4-methyl dibenzoylmethane, 4-isopropyl dibenzoylmethane, 4-tert-butyl dibenzoylmethane, 2,4-dimethyl dibenzoylmethane, 2,5-dimethyl dibenzoylmethane, 4,4'-diisopropyl dibenzoylmethane, 4-methoxy-4'-tert-butyl dibenzoylmethane, 2-methyl-5 -isopropyl-4' -methoxy dibenzoylmethane, 2-methyl-5-tert-butyl-4' -methoxy dibenzoylmethane, 2,4-dimethyl-4'-methoxy dibenzoylmethane, and 2,6-dimethyl-4-tert-butyl-4'-methoxy dibenzoylmethane; and (b) a powder that is surface-hydrophobized by treatment with a metal soap consisting of a higher fatty acid which is a straight or branched carboxylic acid having 8 to 24 carbon atoms and calcium or magnesium, or by combination treatment with a higher fatty acid which is a straight or branched carboxylic acid having 8 to 24 carbon atoms and calcium hydroxide or magnesium hydroxide.
An electronic device, comprising: a voice reception unit ; a storage configured to store a first voice recognition module , and a second voice recognition module ; and a processor configured to: receive a user voice through the voice reception unit , based on a predetermined voice being recognised in the user voice by the second voice recognition module , perform voice recognition on a part of the user voice excluding the predetermined voice using the first voice recognition module , and based on the predetermined voice not being recognised in the user voice by the second voice recognition module , perform voice recognition of the user voice using the first voice recognition module . a voice reception unit ; a storage configured to store a first voice recognition module , and a second voice recognition module ; and a processor configured to: receive a user voice through the voice reception unit , based on a predetermined voice being recognised in the user voice by the second voice recognition module , perform voice recognition on a part of the user voice excluding the predetermined voice using the first voice recognition module , and based on the predetermined voice not being recognised in the user voice by the second voice recognition module , perform voice recognition of the user voice using the first voice recognition module . receive a user voice through the voice reception unit , based on a predetermined voice being recognised in the user voice by the second voice recognition module , perform voice recognition on a part of the user voice excluding the predetermined voice using the first voice recognition module , and based on the predetermined voice not being recognised in the user voice by the second voice recognition module , perform voice recognition of the user voice using the first voice recognition module .
An electric motor , in particular for a motor vehicle , - with a housing acting as yoke , which encloses an external stator in circumferential direction , - with an internal rotor , which is rotatably mounted on the housing about an axis of rotation relative to the stator , - wherein at least one pole body of the stator is radially supported on the housing by way of a damping layer dampening vibrations and noise, and - wherein the damping layer is directly in contact with the housing and with the pole body , characterized in that , - the pole body of the stator is formed as a one-piece permanent magnet closed in circumferential direction , and - the damping layer is formed from multiple layers which are formed from different viscoelastic materials and these layers are in connection with one another sandwich-like. - with a housing acting as yoke , which encloses an external stator in circumferential direction , - with an internal rotor , which is rotatably mounted on the housing about an axis of rotation relative to the stator , - wherein at least one pole body of the stator is radially supported on the housing by way of a damping layer dampening vibrations and noise, and - wherein the damping layer is directly in contact with the housing and with the pole body , characterized in that , - the pole body of the stator is formed as a one-piece permanent magnet closed in circumferential direction , and - the damping layer is formed from multiple layers which are formed from different viscoelastic materials and these layers are in connection with one another sandwich-like.
A locking device for a symmetric cylindrical body fixing a semi-finished product to a workstation, comprises: - an annular locking body with a plurality of movable engagement jaws , which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws , - said cam mechanism comprising a rotatable jaw supporting ring , which is adapted to be rotated by means of a threaded actuation element , which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring , said threaded actuation element comprising: - a smooth head portion , arranged so as to translate in a corresponding first internal guiding portion of said hole , - a central portion having a reduced cross-section, which is adapted to accommodate the operation tab of the jaw supporting ring , - and a threaded tail portion , with a contoured recess for a screwing tool, which is adapted to be screwed to a corresponding complementarily threaded second external portion of said hole , characterized in that said annular locking body comprises an annular cover with radial seats for the movable engagement jaws , said annular cover being fixed to a corresponding annular protrusion that is formed on the base plate . - an annular locking body with a plurality of movable engagement jaws , which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws , - said cam mechanism comprising a rotatable jaw supporting ring , which is adapted to be rotated by means of a threaded actuation element , which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring , - a smooth head portion , arranged so as to translate in a corresponding first internal guiding portion of said hole , - a central portion having a reduced cross-section, which is adapted to accommodate the operation tab of the jaw supporting ring , - and a threaded tail portion , with a contoured recess for a screwing tool, which is adapted to be screwed to a corresponding complementarily threaded second external portion of said hole ,
Method for recording image data of a moving, in particular cyclically moving, examination object of a patient by means of a medical imaging system , wherein a robotic device with a kinematic chain of moving components has a tactile connection with the patient in that an end effector lies on the surface of the patient, and wherein the tactile connection is maintained at least for the duration of the method by means of force and/or torque regulation by way of conjoint movement of the moving components , and wherein meanwhile the following steps are performed: • acquisition of measured values by a force and/or torque and/or position sensor system of the robotic device , • evaluation of the measured values and forwarding to the medical imaging system , wherein the evaluated measured values in particular comprise information on the movement and/or position of the examination object , and • recording of image data from the examination object by the imaging system , wherein the evaluated measured values are used to actuate the imaging system . • acquisition of measured values by a force and/or torque and/or position sensor system of the robotic device , • evaluation of the measured values and forwarding to the medical imaging system , wherein the evaluated measured values in particular comprise information on the movement and/or position of the examination object , and • recording of image data from the examination object by the imaging system ,