mhurhangee/ep-ind-claims huggingface dataset:
A method for creating authenticable color halftone prints made of juxtaposed clusters of dispersed dots comprising the steps of: - creating a screen element with juxtaposed clustered dots (FIG. 11, 1115'B', 1116 'YG', 1117 'R'), the areas of said juxtaposed clustered dots being determined by surface coverages of colorants present within the screen element; - generating the juxtaposed clusters of dispersed dots (FIG. 12) through a dispersed dot halftoning procedure applied to the juxtaposed clustered dots (FIG. 11, bottom), said juxtaposed clusters of dispersed dots formed by sets of densely spaced segments (FIG. 12, 1214, 1215, 1216), partly or fully enclosed by non-printable boundaries within areas of said juxtaposed clustered dots; - tuning the dispersed dot halftoning procedure by defining ink level reduction factors (FIG. 17) specifying surface ratios of segments within said sets of densely spaced segments; - printing the juxtaposed clusters of dispersed dots by transferring them onto a color printer; wherein: -- for a fluorescent color reproduction workflow, the ink level reduction factors (FIG. 17) are optimized to obtain under UV light fluorescent achromatic gray and white colors, -- authentication is performed on the authenticable color halftone prints by verifying the presence of characteristic features of said juxtaposed clusters of dispersed dots. - creating a screen element with juxtaposed clustered dots (FIG. 11, 1115'B', 1116 'YG', 1117 'R'), the areas of said juxtaposed clustered dots being determined by surface coverages of colorants present within the screen element; - generating the juxtaposed clusters of dispersed dots (FIG. 12) through a dispersed dot halftoning procedure applied to the juxtaposed clustered dots (FIG. 11, bottom), said juxtaposed clusters of dispersed dots formed by sets of densely spaced segments (FIG. 12, 1214, 1215, 1216), partly or fully enclosed by non-printable boundaries within areas of said juxtaposed clustered dots; - tuning the dispersed dot halftoning procedure by defining ink level reduction factors (FIG. 17) specifying surface ratios of segments within said sets of densely spaced segments; - printing the juxtaposed clusters of dispersed dots by transferring them onto a color printer; wherein: -- for a fluorescent color reproduction workflow, the ink level reduction factors (FIG. 17) are optimized to obtain under UV light fluorescent achromatic gray and white colors, -- authentication is performed on the authenticable color halftone prints by verifying the presence of characteristic features of said juxtaposed clusters of dispersed dots. -- for a fluorescent color reproduction workflow, the ink level reduction factors (FIG. 17) are optimized to obtain under UV light fluorescent achromatic gray and white colors, -- authentication is performed on the authenticable color halftone prints by verifying the presence of characteristic features of said juxtaposed clusters of dispersed dots.
A method, comprising: in a Wireless Local Area Network, WLAN, device, communicating on a first communication channel using one or more primary transmission/reception, TX/RX, chains (36A...36D); concurrently with communicating on the first communication channel using the primary TX/RX chains, receiving WLAN communication on one or more second communication channels using an auxiliary reception, RX, chain whose input signal is provided from an output of a receive amplifier having a variable-gain in one of the primary TX/RX chains; and setting the variable gain of the receive amplifier based either on a first level of a first signal received via the one of the primary TX/RX chains, or based on a second level of a second signal received via the auxiliary RX chain. in a Wireless Local Area Network, WLAN, device, communicating on a first communication channel using one or more primary transmission/reception, TX/RX, chains (36A...36D); concurrently with communicating on the first communication channel using the primary TX/RX chains, receiving WLAN communication on one or more second communication channels using an auxiliary reception, RX, chain whose input signal is provided from an output of a receive amplifier having a variable-gain in one of the primary TX/RX chains; and setting the variable gain of the receive amplifier based either on a first level of a first signal received via the one of the primary TX/RX chains, or based on a second level of a second signal received via the auxiliary RX chain.
Forearm crutch convertible into an axillary crutch, comprising a crutch body of adjustable length and a support element oriented in a direction substantially perpendicular to the main direction of the crutch body, said support element being an extended handle which has a dual function, namely that of a conventional handle and that of a support element at armpit level, and said crutch body being sufficiently adjustable such that the extended handle supports a user at armpit level when the user is standing, characterized in that the forearm crutch comprises in addition: - a forearm-supporting element disposed in the upper part of the crutch body, in the forearm crutch configuration and the axillary crutch configuration; - a second handle disposed under the support element; the distance between the second handle and the support element being substantially equal to the length of the user's arm, in the forearm crutch configuration and the axillary crutch configuration. - a forearm-supporting element disposed in the upper part of the crutch body, in the forearm crutch configuration and the axillary crutch configuration; - a second handle disposed under the support element; the distance between the second handle and the support element being substantially equal to the length of the user's arm, in the forearm crutch configuration and the axillary crutch configuration.
A fluorescence lifetime measurement apparatus comprising: an illumination light generation unit configured to generate illumination light; a fluorescence photon detection unit configured to collect fluorescence photons generated by illuminating at least one or more samples including fluorescent molecules with the illumination light; a conversion unit including a photodetector configured to convert the collected fluorescence photons into a fluorescence signal, an amplifier and a digitizer; and further comprising a measurement unit configured to compute at least one fluorescence lifetime by applying a least square method to a simulation function and a function of the fluorescence signal measured by the digitizer, characterized in that: the conversion unit further includes an electronic Gaussian low pass filter, the fluorescence signal being delivered to the electronic Gaussian low pass filter, which decreases the bandwidth of the signal to correspond to the bandwidth of the digitizer; and the simulation function contains a function corresponding to the electronic Gaussian low pass filter. an illumination light generation unit configured to generate illumination light; a fluorescence photon detection unit configured to collect fluorescence photons generated by illuminating at least one or more samples including fluorescent molecules with the illumination light; a conversion unit including a photodetector configured to convert the collected fluorescence photons into a fluorescence signal, an amplifier and a digitizer; and further comprising a measurement unit configured to compute at least one fluorescence lifetime by applying a least square method to a simulation function and a function of the fluorescence signal measured by the digitizer, characterized in that: the conversion unit further includes an electronic Gaussian low pass filter, the fluorescence signal being delivered to the electronic Gaussian low pass filter, which decreases the bandwidth of the signal to correspond to the bandwidth of the digitizer; and the simulation function contains a function corresponding to the electronic Gaussian low pass filter. the conversion unit further includes an electronic Gaussian low pass filter, the fluorescence signal being delivered to the electronic Gaussian low pass filter, which decreases the bandwidth of the signal to correspond to the bandwidth of the digitizer; and the simulation function contains a function corresponding to the electronic Gaussian low pass filter.
A survey data processing device comprising: an input unit configured to receive image data of multiple still images, which are photographed from a mobile body flying, and receive flight data, in which a flight route of the mobile body is measured and wherein a relationship between location and time in the flight route is determined; a flight route estimating unit configured to estimate a flight route of the mobile body based on a moving-direction vector obtained by comparing each still image contained in the multiple still images with a next still image contained in the multiple still images that is photographed in a consecutive manner, wherein the moving-direction vector indicates the moving direction and the moving distance of a same feature point in the still image and the next still image; and a synchronous processing unit configured to match a trajectory of the estimated flight route with the flight route of the flight data by rotating, parallel moving, enlarging or reducing the estimated flight route, whereby a relationship between the location and the time in the estimated flight route is determined, characterized in that the synchronous processing unit is configured to, in the processing of matching the trajectory of the estimated flight route with the flight route of the flight data, calculate a location of the estimated flight route by a least-squares method so that a total of distances between vectors for indicating the estimated flight route and vectors for indicating the flight route of the flight data is minimum. an input unit configured to receive image data of multiple still images, which are photographed from a mobile body flying, and receive flight data, in which a flight route of the mobile body is measured and wherein a relationship between location and time in the flight route is determined; a flight route estimating unit configured to estimate a flight route of the mobile body based on a moving-direction vector obtained by comparing each still image contained in the multiple still images with a next still image contained in the multiple still images that is photographed in a consecutive manner, wherein the moving-direction vector indicates the moving direction and the moving distance of a same feature point in the still image and the next still image; and a synchronous processing unit configured to match a trajectory of the estimated flight route with the flight route of the flight data by rotating, parallel moving, enlarging or reducing the estimated flight route, whereby a relationship between the location and the time in the estimated flight route is determined, characterized in that the synchronous processing unit is configured to, in the processing of matching the trajectory of the estimated flight route with the flight route of the flight data, calculate a location of the estimated flight route by a least-squares method so that a total of distances between vectors for indicating the estimated flight route and vectors for indicating the flight route of the flight data is minimum.
A method for wireless communications, comprising: determining a transmit opportunity for transmitting a scheduling request, SR, for uplink resources based, at least in part, on a discontinuous reception, DRX, time cycle and an SR delay parameter, comprising: determining a transmission delay comprising a time interval to a first SR opportunity after a pre-determined SR delay that is based on the SR delay parameter, wherein the SR delay parameter is based, at least in part, on channel condition; determining the transmit opportunity to be the first SR opportunity occurring after the DRX time cycle if the transmission delay does not exceed a delay threshold; and transmitting the SR in the determined transmit opportunity. determining a transmission delay comprising a time interval to a first SR opportunity after a pre-determined SR delay that is based on the SR delay parameter, wherein the SR delay parameter is based, at least in part, on channel condition; determining the transmit opportunity to be the first SR opportunity occurring after the DRX time cycle if the transmission delay does not exceed a delay threshold; and transmitting the SR in the determined transmit opportunity.
A system, comprising: a blade outer air seal (BOAS) segment for a gas turbine engine, the segment having a circumferentially extending slot (68, 70); and a retention clip (62A, 62B; 100A, 100B; 108A, 108B) partially received in the slot (68, 70) and partially contacting a circumferential end (72, 74) of the segment; characterised in that: the BOAS segment includes a fore slot and an aft slot, each of the fore slot and the aft slot extending in a circumferential direction. a blade outer air seal (BOAS) segment for a gas turbine engine, the segment having a circumferentially extending slot (68, 70); and a retention clip (62A, 62B; 100A, 100B; 108A, 108B) partially received in the slot (68, 70) and partially contacting a circumferential end (72, 74) of the segment; characterised in that: the BOAS segment includes a fore slot and an aft slot, each of the fore slot and the aft slot extending in a circumferential direction.
A system for providing therapy for a motor deficit of a stroke patient, comprising; a stimulation system comprising a pulse generator, an electrode and a lead coupling the pulse generator to the electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system; and a manual input device configured to communicate with the clinical controller, wherein the manual input device is configured to be engaged during performance of a therapeutic task, wherein the system is configured to perform the following, when the manual input device is engaged: - the clinical controller sends a signal to the external communication device, - the external communication device sends a signal to the stimulation system, - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task. a stimulation system comprising a pulse generator, an electrode and a lead coupling the pulse generator to the electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system; and a manual input device configured to communicate with the clinical controller, wherein the manual input device is configured to be engaged during performance of a therapeutic task, wherein the system is configured to perform the following, when the manual input device is engaged: - the clinical controller sends a signal to the external communication device, - the external communication device sends a signal to the stimulation system, - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task. - the clinical controller sends a signal to the external communication device, - the external communication device sends a signal to the stimulation system, - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task.
Method for warning a person about at least one first robot in a working space which comprises a plurality of floor segments, wherein a working space segment is assigned to each of the floor segments, comprising the steps: a) prediction of a robot movement which is performed by the at least one first robot in a working interval, wherein the working interval comprises a first time period and a later second time period; b) determination of a space travelled through by the at least one first robot during the working interval; c) determination of at least one working space segment which, within a first and a second time period (52, 54), lies at least partially within the space travelled through; d) output of a first visual warning on a floor segment if the associated working space segment will be travelled through within the first time period; and e) output of a second visual warning on a floor segment if the associated working space segment will be travelled through within the second time period. a) prediction of a robot movement which is performed by the at least one first robot in a working interval, wherein the working interval comprises a first time period and a later second time period; b) determination of a space travelled through by the at least one first robot during the working interval; c) determination of at least one working space segment which, within a first and a second time period (52, 54), lies at least partially within the space travelled through; d) output of a first visual warning on a floor segment if the associated working space segment will be travelled through within the first time period; and e) output of a second visual warning on a floor segment if the associated working space segment will be travelled through within the second time period.
Device for measuring the fill level of a fluid in a container for a motor vehicle, comprising - an outer sensor sleeve which has a wall, wherein the outer sensor sleeve represents a settling tube, in which the fluid is caused to settle and any air bubbles present can escape to the surface of the fluid, - an inner sensor sleeve which has a wall with a venting opening, wherein the inner sensor sleeve is arranged within the outer sensor sleeve such that an intermediate space is formed between the walls (12, 22) of the outer and inner sensor sleeves (10, 20), wherein the inner sensor sleeve represents the actual measurement tube, in which it is possible to carry out a fill level measurement, for example by means of sending and receiving ultrasonic signals, - a terminating sleeve which has an outer terminating element with two venting openings (35, 36) and has an inner terminating element which is arranged within the outer terminating element, wherein the terminating sleeve, with respect to a longitudinal axis, is designed to close off a respective axial end (16, 26) of the outer and inner sensor tubes (10, 20), and - a collar element which is arranged between the inner and outer sensor sleeves (10, 20) and which is in contact with the wall (12, 22) of the inner and outer sensor sleeves (10, 20) and which, with respect to the longitudinal axis, apart from an opening, surrounds the inner sensor sleeve so as to form, in cooperation with the two venting openings (35, 36) of the terminating sleeve, a venting channel for the intermediate space, which venting channel is separate from a venting channel for the inner sleeve. - an outer sensor sleeve which has a wall, wherein the outer sensor sleeve represents a settling tube, in which the fluid is caused to settle and any air bubbles present can escape to the surface of the fluid, - an inner sensor sleeve which has a wall with a venting opening, wherein the inner sensor sleeve is arranged within the outer sensor sleeve such that an intermediate space is formed between the walls (12, 22) of the outer and inner sensor sleeves (10, 20), wherein the inner sensor sleeve represents the actual measurement tube, in which it is possible to carry out a fill level measurement, for example by means of sending and receiving ultrasonic signals, - a terminating sleeve which has an outer terminating element with two venting openings (35, 36) and has an inner terminating element which is arranged within the outer terminating element, wherein the terminating sleeve, with respect to a longitudinal axis, is designed to close off a respective axial end (16, 26) of the outer and inner sensor tubes (10, 20), and - a collar element which is arranged between the inner and outer sensor sleeves (10, 20) and which is in contact with the wall (12, 22) of the inner and outer sensor sleeves (10, 20) and which, with respect to the longitudinal axis, apart from an opening, surrounds the inner sensor sleeve so as to form, in cooperation with the two venting openings (35, 36) of the terminating sleeve, a venting channel for the intermediate space, which venting channel is separate from a venting channel for the inner sleeve.
Method for preparing a formaldehyde-free amino resin or amide resin, comprising (i) reacting a triamine or triamide with a monoaldehyde having at least 2 C atoms, where - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, to form an intermediate that has a reactive protective group derived from the monoaldehyde on at least one amine group or amide group, and (ii) reacting the intermediate with a dialdehyde or trialdehyde to form a crosslinkable amino resin or amide resin, where the molar ratio of the dialdehyde or trialdehyde added in step (ii) to the amine groups of the triamine added in step (i) or to the amide groups of the triamide added in step (i) is in the range from 0.1/3 to 2.2/3. (i) reacting a triamine or triamide with a monoaldehyde having at least 2 C atoms, where - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, to form an intermediate that has a reactive protective group derived from the monoaldehyde on at least one amine group or amide group, and - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, (ii) reacting the intermediate with a dialdehyde or trialdehyde to form a crosslinkable amino resin or amide resin, where the molar ratio of the dialdehyde or trialdehyde added in step (ii) to the amine groups of the triamine added in step (i) or to the amide groups of the triamide added in step (i) is in the range from 0.1/3 to 2.2/3.