mhurhangee/ep-ind-claims huggingface dataset:
A system for recognizing a machining error for a laser machining system for machining a workpiece, comprising: - a detection unit for detecting image data and height data of a machined workpiece surface; and - a computing unit, characterized in that said computing unit is configured to create an input tensor based on the detected image data and height data, and to determine an output tensor based on the input tensor using a transfer function, the output tensor containing information about a machining error, wherein said transfer function is formed by a neural network, wherein said input tensor comprises a two-channel image of the height data and image data. - a detection unit for detecting image data and height data of a machined workpiece surface; and - a computing unit,
An apparatus for producing an electrosensory sensation to at least one body part to be stimulated, the apparatus comprising: - a touch screen surface, and - one or more conducting electrodes overlaid on the touch screen surface, each conducting electrode being provided with an insulator wherein, when the at least one body part to be stimulated is proximate to the conducting electrode, the insulator prevents flow of direct current from the conducting electrode to the body part to be stimulated and a capacitive coupling over the insulator is formed between the conducting electrode and the at least one body part to be stimulated, and wherein the one or more conducting electrodes and the respective one or more insulators are transparent; - a high-voltage source (100, 102, 104) for applying an electrical input to the one or more conducting electrodes, wherein the electrical input has at least a portion of its energy content in a frequency range between 10 Hz and 1000 Hz; - wherein the capacitive coupling and electrical input are dimensioned to produce an electrosensory sensation; and - whereby the electrosensory sensation is produced independently of any mechanical vibration of the one or more conducting electrodes or insulators; wherein the apparatus further comprises: - a controller (1406, 1506) configured to use position information on a position of the at least one body part to temporally vary the electrosensory sensation; - whereby the electrosensory sensation is based at least partially on the position of the at least one body part relative to the touch screen surface. - a touch screen surface, and - one or more conducting electrodes overlaid on the touch screen surface, each conducting electrode being provided with an insulator wherein, when the at least one body part to be stimulated is proximate to the conducting electrode, the insulator prevents flow of direct current from the conducting electrode to the body part to be stimulated and a capacitive coupling over the insulator is formed between the conducting electrode and the at least one body part to be stimulated, and wherein the one or more conducting electrodes and the respective one or more insulators are transparent; - a high-voltage source (100, 102, 104) for applying an electrical input to the one or more conducting electrodes, wherein the electrical input has at least a portion of its energy content in a frequency range between 10 Hz and 1000 Hz; - wherein the capacitive coupling and electrical input are dimensioned to produce an electrosensory sensation; and - whereby the electrosensory sensation is produced independently of any mechanical vibration of the one or more conducting electrodes or insulators; - a controller (1406, 1506) configured to use position information on a position of the at least one body part to temporally vary the electrosensory sensation; - whereby the electrosensory sensation is based at least partially on the position of the at least one body part relative to the touch screen surface.
An integrated circuit (105A, 105B), comprising: application circuitry; a chip-to-chip, C2C, interface; and a protocol layer connected between the application circuitry and the C2C interface, wherein the protocol layer is configured to: receive a plurality of protocol words from the application circuitry, to be transmitted on the C2C interface, that each exceeds a size of a data word, DW, supported by the C2C interface, and packetize the plurality of protocol words by: mapping subportions of the plurality of protocol words to separate DWs, wherein each of the subportions are equal to, or less than, the size of the DW, and generating at least one DW that contains the remaining portions of the plurality of protocol words not included in the subportions. application circuitry; a chip-to-chip, C2C, interface; and a protocol layer connected between the application circuitry and the C2C interface, wherein the protocol layer is configured to: receive a plurality of protocol words from the application circuitry, to be transmitted on the C2C interface, that each exceeds a size of a data word, DW, supported by the C2C interface, and packetize the plurality of protocol words by: mapping subportions of the plurality of protocol words to separate DWs, wherein each of the subportions are equal to, or less than, the size of the DW, and generating at least one DW that contains the remaining portions of the plurality of protocol words not included in the subportions. receive a plurality of protocol words from the application circuitry, to be transmitted on the C2C interface, that each exceeds a size of a data word, DW, supported by the C2C interface, and packetize the plurality of protocol words by: mapping subportions of the plurality of protocol words to separate DWs, wherein each of the subportions are equal to, or less than, the size of the DW, and generating at least one DW that contains the remaining portions of the plurality of protocol words not included in the subportions. mapping subportions of the plurality of protocol words to separate DWs, wherein each of the subportions are equal to, or less than, the size of the DW, and generating at least one DW that contains the remaining portions of the plurality of protocol words not included in the subportions.
A method for producing a functional film, comprising the steps of: (i) feeding a substrate continuously from a film roll, forming a coating film on the substrate, providing a laminate film on a surface of the coating film, and winding up the resultant substrate into a film roll; and (ii) loading the film roll wound up in the prior step into a vacuum film-forming apparatus, feeding the substrate provided with the laminate film continuously from the film roll, peeling off the laminate film, forming an inorganic film on the coating film on the substrate, and winding up the resultant substrate into a film roll, wherein for the laminate film, an adhesive film having an adhesive layer having a peel force of 0.4 N/m or more and 2.4 N/m or less against the coating film is used, the adhesive film is provided with an adhesive layer through co-extrusion, the coating film is formed from a material containing one of a radiation curable monomer and a radiation curable oligomer, step (i) is performed in the atmosphere, and before step (ii), the film roll is left under atmospheric pressure for 1 hour or longer to remove air by self-weight of the film roll, wherein the peel force is measured using a tensile tester at a tensile speed of 300 mm/min and a peel angle of 180° according to the tensile method JIS Z 0237. (i) feeding a substrate continuously from a film roll, forming a coating film on the substrate, providing a laminate film on a surface of the coating film, and winding up the resultant substrate into a film roll; and (ii) loading the film roll wound up in the prior step into a vacuum film-forming apparatus, feeding the substrate provided with the laminate film continuously from the film roll, peeling off the laminate film, forming an inorganic film on the coating film on the substrate, and winding up the resultant substrate into a film roll,
A method for enabling collaborative access to a data object, comprising: establishing an access control policy, the access control policy defining at least one collaborative condition under which access to the data object is permissible; monitoring a plurality of users for compliance with the collaborative condition; and providing access to the data object after a predetermined number of the users meet the at least one collaborative condition; wherein the access control policy further comprises at least one relative temporal condition, such that the step of providing access to the data object is dependent upon the predetermined number of users meeting the at least one collaborative condition within a predetermined time period relative to each other. establishing an access control policy, the access control policy defining at least one collaborative condition under which access to the data object is permissible; monitoring a plurality of users for compliance with the collaborative condition; and providing access to the data object after a predetermined number of the users meet the at least one collaborative condition; wherein the access control policy further comprises at least one relative temporal condition, such that the step of providing access to the data object is dependent upon the predetermined number of users meeting the at least one collaborative condition within a predetermined time period relative to each other.
Cipher processing means for dividing a packet combining data unit that is transmitted from a mobile station of a mobile communication system and received at a base station into a plurality of protocol data units and performing cipher processing at a time of putting together the divided protocol data units into a service data unit for a higher-level device, the cipher processing means comprising: Media Access Control, MAC, loss detecting and estimating means for detecting occurrence of loss in the protocol data units divided by each logic channel based on information of the logic channels which specify radio bearers contained in the data unit, and estimates the radio bearer of the lost protocol data unit and a data amount of the lost protocol data unit; Radio Link Control, RLC, loss detecting and estimating means for detecting occurrence of loss in the protocol data units when putting together the divided protocol data units into the service data unit for the higher-level device based on a continuity of serial numbers contained in the protocol data units, and estimating a lost amount of the protocol data units when making the service data unit based on the data amount estimated by the MAC loss detecting and estimating means; and correction means for correcting a frame number of the service data unit based on the estimated data amount from the RLC loss detecting and estimating means.
A method for sharing multimedia content using a digital video recorder (2203, 2303), the method comprising the computer-implemented steps of: receiving an email, on a media server (2202, 2302) other than the digital video recorder (2203, 2303), comprising an emailed content file; wherein the emailed content file contains digital video recorder configuration settings including recording schedules for the digital video recorder (2203, 2303) to use to configure the digital video recorder (2203, 2303), and optionally any of the following: audio content, video content, photo content, link(s) to a server, or link(s) to content stored on a server; in response to a user command selecting the emailed content file from the email, the media server (2202, 2302) processing the emailed content file to store information associated with the emailed content file to a content database; the media server (2202, 2302) sending the digital video recorder configuration settings including the recording schedules in the emailed content file to the digital video recorder (2203, 2303). receiving an email, on a media server (2202, 2302) other than the digital video recorder (2203, 2303), comprising an emailed content file; wherein the emailed content file contains digital video recorder configuration settings including recording schedules for the digital video recorder (2203, 2303) to use to configure the digital video recorder (2203, 2303), and optionally any of the following: audio content, video content, photo content, link(s) to a server, or link(s) to content stored on a server; in response to a user command selecting the emailed content file from the email, the media server (2202, 2302) processing the emailed content file to store information associated with the emailed content file to a content database; the media server (2202, 2302) sending the digital video recorder configuration settings including the recording schedules in the emailed content file to the digital video recorder (2203, 2303).
A method for filtering a transmit, TX, leakage signal from a received input signal in a radio frequency, RF, receiver, the method comprising: receiving an RF receive, RX, input signal having a TX leakage signal from a transmitter; generating a carrier signal for said transmitter; subtracting a TX leakage signal estimate (e(t)) from the input signal to produce an output signal (y(t)); and generating the TX leakage signal estimate based on the output signal and a reference signal (r(t)) at a carrier frequency of the TX leakage signal, characterised in that the reference signal (r(t)) is said generated carrier signal for said transmitter.
Method for operating an ultrasonic sensor apparatus of a motor vehicle, in which, in order to capture an environment of the motor vehicle, sensor data are received from a plurality of ultrasonic sensors by means of a control device, and, in order to configure the ultrasonic sensors, configuration data are transmitted to the respective ultrasonic sensors by means of the control device, wherein, for each of the ultrasonic sensors, it is detected whether the ultrasonic sensor is in a capture mode, in which the sensor data from the ultrasonic sensor are used to capture the environment, or in a non-capture mode, in which the sensor data from the ultrasonic sensor are disregarded for capturing the environment, wherein the configuration data are transmitted to the respective ultrasonic sensor if it is in the non-capture mode, characterized in that the non-capture mode is detected while outputting a warning to a driver of the motor vehicle, wherein the warning is output as a result of an object detected in the environment on the basis of the sensor data. wherein, for each of the ultrasonic sensors, it is detected whether the ultrasonic sensor is in a capture mode, in which the sensor data from the ultrasonic sensor are used to capture the environment, or in a non-capture mode, in which the sensor data from the ultrasonic sensor are disregarded for capturing the environment, wherein the configuration data are transmitted to the respective ultrasonic sensor if it is in the non-capture mode, characterized in that the non-capture mode is detected while outputting a warning to a driver of the motor vehicle, wherein the warning is output as a result of an object detected in the environment on the basis of the sensor data.
A jewelry item, comprising a thin piece member, a frame member, and a compound layer, charactersised in that the thin piece member is formed from a gold alloy containing gold (Au) as a first metal element and aluminum (Al) as a second metal element, the frame member includes platinum (Pt) as a third metal element and palladium (Pd) as a fourth metal element as a metal for an alloy of the third metal, forming a bond with and surrounding a peripheral edge of the thin piece member, and the compound layer containing the first metal element, the second metal element, the third metal element and the fourth metal element is interposed between the thin piece member and the frame member. the thin piece member is formed from a gold alloy containing gold (Au) as a first metal element and aluminum (Al) as a second metal element, the frame member includes platinum (Pt) as a third metal element and palladium (Pd) as a fourth metal element as a metal for an alloy of the third metal, forming a bond with and surrounding a peripheral edge of the thin piece member, and the compound layer containing the first metal element, the second metal element, the third metal element and the fourth metal element is interposed between the thin piece member and the frame member.
A device for treating a heart, comprising: a ring-like structure configured to be secured to a heart valve; at least one elongate member (108, 110) extending from the ring-like structure, wherein an end (108a, 110a) of the elongate member (108, 110) is configured to be secured to heart geometry other than a heart valve; characterized by an adjustment mechanism for altering a dimension of the ring-like structure and a length or tension of the elongate member (108, 110). a ring-like structure configured to be secured to a heart valve; at least one elongate member (108, 110) extending from the ring-like structure, wherein an end (108a, 110a) of the elongate member (108, 110) is configured to be secured to heart geometry other than a heart valve; characterized by an adjustment mechanism for altering a dimension of the ring-like structure and a length or tension of the elongate member (108, 110).
An interference detection method for providing information about at least one interference in I/Q data obtained over-the-air or detected on a link between a radio equipment controller and at least one radio equipment, said I/Q data being provided as a plurality of FFTs, said interference causing a peak in said FFTs, the method comprising: noise filtering a set of said FFTs into an averaged FFT; filtering the averaged FFT with a high-pass filter to remove low frequency components, thereby producing a high-pass filtered FFT; applying a power threshold on the high-pass filtered FFT to select at least one candidate peak having a power greater than said power threshold; outputting information about said at least one candidate peak, wherein said at least one candidate peak is a potential interference. noise filtering a set of said FFTs into an averaged FFT; filtering the averaged FFT with a high-pass filter to remove low frequency components, thereby producing a high-pass filtered FFT; applying a power threshold on the high-pass filtered FFT to select at least one candidate peak having a power greater than said power threshold; outputting information about said at least one candidate peak, wherein said at least one candidate peak is a potential interference.
A method of decoding a radio signal by an electronic device, the method comprising: receiving the radio signal; digitizing the radio signal; auto-correlating the digitized radio signal to generate a first signal; and determining periodic information of the radio signal using the first signal, said method being characterized in that the step of determining periodic information of the radio signal comprises: applying a filter to the first signal to generate a second signal, in order to improve recovery of specific timing parameters; applying a Fourier Transform to the second signal to generate a third signal; identifying one or more peaks in the third signal; and said method further comprising: generating a confidence parameter of the periodic information, by computing a statistical information of the one or more peaks, or a width of a peak from which periodic information is obtained; when the confidence parameter is below an acceptable value, repeating the auto-correlating, the determining periodic information and the generating the confidence parameter, until the confidence parameter meets the acceptable value; decoding the radio signal using the periodic information. receiving the radio signal; digitizing the radio signal; auto-correlating the digitized radio signal to generate a first signal; and determining periodic information of the radio signal using the first signal, said method being characterized in that the step of determining periodic information of the radio signal comprises: applying a filter to the first signal to generate a second signal, in order to improve recovery of specific timing parameters; applying a Fourier Transform to the second signal to generate a third signal; identifying one or more peaks in the third signal; and applying a filter to the first signal to generate a second signal, in order to improve recovery of specific timing parameters; applying a Fourier Transform to the second signal to generate a third signal; identifying one or more peaks in the third signal; and generating a confidence parameter of the periodic information, by computing a statistical information of the one or more peaks, or a width of a peak from which periodic information is obtained; when the confidence parameter is below an acceptable value, repeating the auto-correlating, the determining periodic information and the generating the confidence parameter, until the confidence parameter meets the acceptable value; decoding the radio signal using the periodic information.
Hollow-chamber profile, in particular window profile or door profile, of thermoplastic material, having an outer wall that is exposed to the weather and an outer wall that faces a room, and having at least one hollow chamber (4, 5) adjacent to the weather side, wherein the outer wall that is exposed to the weather comprises a first thermoplastic material A and at least one other wall (6, 6', 6") of the hollow-chamber profile comprises a second thermoplastic material B, wherein the second thermoplastic material B has a Vicat softening temperature, measured in accordance with DIN EN ISO 306 (B 50), which is at least 5 K higher than that of the first thermoplastic material A, and the second thermoplastic material B has a Vicat softening temperature, measured in accordance with DIN EN ISO 306 (B 50), of at least 85°C, characterised in that the outer wall that is exposed to the weather is formed wholly of the first thermoplastic material A, or the surface that is exposed to the weather of the outer wall that is exposed to the weather is formed by a layer of the first thermoplastic material A.
System comprising a mobile communication device and a network having a central computer and a plurality of fans, wherein the fans are able to communicate with the central computer via a bus system, wherein each fan is provided with a rewritable memory and a RFID interface for communication with the mobile communication device, wherein in the memory of the respective fan its serial number is stored and the serial number is out-readable by the communication device in the voltage-free non-operational state of the respective fan, and the central computer is configured to be able to automatically assign network addresses to the voltage-free fans depending on the read out serial number, wherein furthermore a position detection device is arranged integrally in or in the immediate vicinity of the communication device, which has means for detecting the position of the communication device respectively at a time as soon as the serial number of the fan located closest to the communication device is read out, and the communication device transfers the detected position directly or indirectly to the memory in the form of position data (X, Y, Z), wherein software for reading out and writing position data into the respective memory of the fan via the respective RFID interface of the fan is provided on the communication device, and a control unit of the central computer automatically assigns network addresses to the fans, as the fans respond with their unique position data (X, Y, Z) depending on requests from the central computer and, depending thereon, the network addresses being assigned and linked to the position data (X, Y, Z) of the respective fan.