mhurhangee/ep-ind-claims huggingface dataset:
A system for obscuring DIAMETER node information in a communication network, the system comprising: a DIAMETER agent platform, comprising: a network interface for receiving a message from a first mobility management entity, MME,; a DIAMETER information hiding module for modifying, in the first message, DIAMETER information for the first MME so as to obscure the identity of the first MME, wherein the modification of the DIAMETER information comprises replacing, in the message, the DIAMETER information identifying the first MME with virtual DIAMETER identification information, wherein a plurality of MMEs in the same network of the first MME are associated with the same virtual DIAMETER identification information; and a routing module for routing the modified message to a second DIAMETER node; and a store of the unmodified DIAMETER information associated with identification information of a subscriber. a network interface for receiving a message from a first mobility management entity, MME,; a DIAMETER information hiding module for modifying, in the first message, DIAMETER information for the first MME so as to obscure the identity of the first MME, wherein the modification of the DIAMETER information comprises replacing, in the message, the DIAMETER information identifying the first MME with virtual DIAMETER identification information, wherein a plurality of MMEs in the same network of the first MME are associated with the same virtual DIAMETER identification information; and a routing module for routing the modified message to a second DIAMETER node; and a store of the unmodified DIAMETER information associated with identification information of a subscriber.
A method of detecting the presence of corn event MIR604 DNA comprising a nucleotide sequences of a cry3A055 gene of SEQ ID NO: 59 flanked by nucleotides sequences set forth in SEQ ID NO:1 and SEQ ID NO: 3, and SEQ ID NO: 2 and SEQ ID NO: 4, respectively, or the complements thereof in a biological sample, comprising: (a) contacting the sample with a first polynucleotide primer and a second polynucleotide primer that function together in a nucleic acid amplification reaction in the presence of a DNA template from corn event MIR604 to produce an amplicon diagnostic for the corn event; (b) performing a nucleic acid amplification reaction, thereby producing the amplicon; and (c) detecting the amplicon; wherein the amplicon comprises a nucleotide sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, and the complements thereof. (a) contacting the sample with a first polynucleotide primer and a second polynucleotide primer that function together in a nucleic acid amplification reaction in the presence of a DNA template from corn event MIR604 to produce an amplicon diagnostic for the corn event; (b) performing a nucleic acid amplification reaction, thereby producing the amplicon; and (c) detecting the amplicon;
A thermoplastic polymer for additive manufacturing, wherein the thermoplastic polymer is derived from a chlorinated monomer unit, wherein the thermoplastic polymer has a melt flow rate suitable for additive manufacturing from 2 to 30 g/10 min as determined at 205 °C and with a nominal weight of 2.16 kg according to ASTM D1238.
A computer-implemented method for nudging incoming objects by an autonomous driving vehicle, ADV, comprising: detecting, by the ADV, an incoming object in a self-reverse lane, wherein the ADV is following a first reference line in the self-reverse lane; creating a temporary lane with a second reference line in the center of the temporary lane, wherein the temporary lane is created by modifying a high definition map that the ADV uses in generating trajectories, wherein the temporary lane is created in the high definition map by generating a temporary lane boundary at a predetermined angle from a lane boundary of the self-reverse lane, following the second reference line to nudge the incoming object; determining that the incoming object has passed and the self-reverse lane is clear; and driving back to the center of the self-reverse lane to continue to follow the first reference line in response to determining that the first lane is clear. detecting, by the ADV, an incoming object in a self-reverse lane, wherein the ADV is following a first reference line in the self-reverse lane; creating a temporary lane with a second reference line in the center of the temporary lane, wherein the temporary lane is created by modifying a high definition map that the ADV uses in generating trajectories, wherein the temporary lane is created in the high definition map by generating a temporary lane boundary at a predetermined angle from a lane boundary of the self-reverse lane, following the second reference line to nudge the incoming object; determining that the incoming object has passed and the self-reverse lane is clear; and driving back to the center of the self-reverse lane to continue to follow the first reference line in response to determining that the first lane is clear.
Cantilevered folding gate, comprising: - a column; - a first gate leaf which is hingedly connected to the column; - a second gate leaf which is hingedly connected to the first gate leaf; - drive means designed to drive the first gate leaf; - a transmission mechanism comprising a housing and designed to transmit the movement of the first gate leaf to the second leaf so that the first and second gate leaf open or close simultaneously by folding, wherein said transmission mechanism is substantially accommodated in said housing which is detachably connected to the first gate leaf, in which the transmission mechanism comprises a first rotatable element and a second rotatable element between which a transmission means is provided and furthermore comprises a first and second entrainment member which are respectively designed to connect the first rotatable element to the column and to connect the second rotatable element to the second gate leaf, wherein the column comprises a first retaining unit which is designed to accommodate an end of the first entrainment member so that the first rotatable element, in use, cannot rotate with respect to the column, wherein the second gate leaf comprises a second retaining unit which is designed to accommodate an end of the second entrainment member so that the second rotatable element, in use, cannot rotate with respect to the second gate leaf, wherein said first rotatable element is an element which is connected to the column and which is provided with a toothing along at least part of its outer periphery, and wherein the second rotatable element which is connected to the second gate leaf is provided with a toothing along at least part of its outer periphery, wherein the transmission means is designed to carry out a translational movement relative to the first leaf and is provided with a toothing at both its ends (9 and 10), with one end being designed to roll over the teeth of the first rotatable element and with the teeth of the other end meshing with the teeth of the second rotatable element. - a column; - a first gate leaf which is hingedly connected to the column; - a second gate leaf which is hingedly connected to the first gate leaf; - drive means designed to drive the first gate leaf; - a transmission mechanism comprising a housing and designed to transmit the movement of the first gate leaf to the second leaf so that the first and second gate leaf open or close simultaneously by folding,
Recharging method for a lead-acid storage battery arranged in a vehicle (Vh) comprising a step of detecting a level of sulfation, in particular a reversible level of sulfation of the battery, said step comprising a sub-step of incrementing a value (Ct) of a time counter (Cpt) relating to periods in which the vehicle (Vh) is in use and parked, the method comprising a step of triggering a battery desulfation charge when said incremented value (Ct) is higher than or equal to a threshold value (Cs), said method being characterized in that the incrementation sub-step comprises: - a phase of determining a weighted duration (Tpk) of the period in which the vehicle (Vh) is parked; - a phase of determining a weighted duration (Tpu) of the period in which the vehicle (Vh) is in use; - a phase of determining the value (Ct) of the time counter (Cpt) from the weighted durations (Tpk, Tpu) determined from the periods in which the vehicle (Vh) is parked and in use, respectively, the phase of determining a weighted duration (Tpu) of the period in which the vehicle (Vh) is in use comprising: - a sub-phase of estimating a duration (Tu) relating to the period in which the vehicle (Vh) is in use; - a sub-phase of measuring a state of charge (SOCu) of the battery during the period of use; - a sub-phase of determining a weighting coefficient (Cfu) of the duration in which the vehicle (Vh) is in use according to a measured state of charge (SOCu) of the battery and state of charge thresholds (Su1, Su2); - a sub-phase of calculating a weighted duration (Tpu) relating to the period in which the vehicle (Vh) is in use according to the estimated duration (Tu) and the weighting coefficient (Cfu). - a phase of determining a weighted duration (Tpk) of the period in which the vehicle (Vh) is parked; - a phase of determining a weighted duration (Tpu) of the period in which the vehicle (Vh) is in use; - a phase of determining the value (Ct) of the time counter (Cpt) from the weighted durations (Tpk, Tpu) determined from the periods in which the vehicle (Vh) is parked and in use, respectively, - a sub-phase of estimating a duration (Tu) relating to the period in which the vehicle (Vh) is in use; - a sub-phase of measuring a state of charge (SOCu) of the battery during the period of use; - a sub-phase of determining a weighting coefficient (Cfu) of the duration in which the vehicle (Vh) is in use according to a measured state of charge (SOCu) of the battery and state of charge thresholds (Su1, Su2); - a sub-phase of calculating a weighted duration (Tpu) relating to the period in which the vehicle (Vh) is in use according to the estimated duration (Tu) and the weighting coefficient (Cfu).
A method comprising: defining first and second parameters optimized for detecting, respectively, a retroreflective and non-retroreflective object, wherein the first and second parameters each comprise an illumination time of a light source, and wherein optimizing the first and second parameters for detecting, respectively, the retroreflective and non-retroreflective object comprises varying the first and second parameters to produce properly exposed images of, respectively, the retroreflective and non-retroreflective object in a camera scene; capturing a sequential series of first and second adjacent video frames based on, respectively, the first and second parameters, such that a resulting video stream comprises alternating sequences of images of first and second types suitable for discerning, respectively, the retroreflective and non-retroreflective object; separating the first and second type of images from the video stream; combining the first type of images to form an enhanced composite image of a first type; combining the second type of images to form an enhanced composite image of a second type; and detecting the retroreflective object and non-retroreflective object in the camera scene based on, respectively, the first and second type of enhanced composite image. defining first and second parameters optimized for detecting, respectively, a retroreflective and non-retroreflective object, wherein the first and second parameters each comprise an illumination time of a light source, and wherein optimizing the first and second parameters for detecting, respectively, the retroreflective and non-retroreflective object comprises varying the first and second parameters to produce properly exposed images of, respectively, the retroreflective and non-retroreflective object in a camera scene; capturing a sequential series of first and second adjacent video frames based on, respectively, the first and second parameters, such that a resulting video stream comprises alternating sequences of images of first and second types suitable for discerning, respectively, the retroreflective and non-retroreflective object; separating the first and second type of images from the video stream; combining the first type of images to form an enhanced composite image of a first type; combining the second type of images to form an enhanced composite image of a second type; and detecting the retroreflective object and non-retroreflective object in the camera scene based on, respectively, the first and second type of enhanced composite image.
A seal assembly (640, 640') for a rotary preheater, the seal assembly comprising: a first leaf having a first base section and a first substantially straight elongate section extending away from the first base section and terminating at a first distal end thereof, the first leaf having a first bend located between the first base section and the first elongate section; a second leaf having a second distal end and a second substantially straight elongate section extending away from the second distal end towards the first base section of the first leaf; a spacer positioned between and secured to the first distal end of the first leaf and the second distal end of the second leaf, the spacer extending along a portion of the first elongate section of the first leaf and forming a gap between a portion of the second elongate section and the first elongate section such that the portion of the second elongate section is spaced apart from the first elongate section, the second elongate section extending beyond an inboard end of the spacer and terminating along the first bend of the first leaf, at a terminus of the second leaf, so that a portion of the second leaf proximate the terminus is slidingly moveable relative to and in compressive engagement with a portion of the first bend. a first leaf having a first base section and a first substantially straight elongate section extending away from the first base section and terminating at a first distal end thereof, the first leaf having a first bend located between the first base section and the first elongate section; a second leaf having a second distal end and a second substantially straight elongate section extending away from the second distal end towards the first base section of the first leaf; a spacer positioned between and secured to the first distal end of the first leaf and the second distal end of the second leaf, the spacer extending along a portion of the first elongate section of the first leaf and forming a gap between a portion of the second elongate section and the first elongate section such that the portion of the second elongate section is spaced apart from the first elongate section, the second elongate section extending beyond an inboard end of the spacer and terminating along the first bend of the first leaf, at a terminus of the second leaf, so that a portion of the second leaf proximate the terminus is slidingly moveable relative to and in compressive engagement with a portion of the first bend.
Mobile device (10a, 10b) for heating spaces, comprising a heating battery (11a, 11b) provided with one or more radiant elements (12a, 12b) in which a heated heat transfer fluid flows, and associated with a control panel (13a, 13b) configured to regulate and control the functioning of said heating battery (11a, 11b), a thermal protection assembly (14a, 14b) positioned between said heating battery (11a, 11b) and said control panel (13a, 13b) and configured to allow an increase in heat exchange of the heating battery (11a, 11b) with the surrounding space and a decrease in heat exchange with the control panel (13a, 13b), said heating battery (11a, 11b) having at least one free surface (15a, 15b) facing said control panel (13a, 13b) and in contact with the space that surrounds the mobile device, said thermal protection assembly (14a, 14b) comprising at least one heat exchange zone (19, 22, 23), disposed between said heating battery (11a, 11b) and said control panel (13a, 13b) and created thanks to the reciprocal distancing between said heating battery (11a, 11b) and said control panel (13a, 13b), said control panel (13a, 13b) being positioned on a support (20, 24) which allows it to be distanced from said heating battery (11a, 11b) and to at least partly create said heat exchange zone (19, 22, 23), said mobile device (10a, 10b) being characterized in that said thermal protection assembly comprises at least one metal box-like element positioned between said heating battery and said support, around which said heat exchange zone is at least partly created.
An aqueous binder composition for mineral fibres comprising: a water-soluble binder component obtainable by reacting at least one alkanolamine with at least one carboxylic anhydride in proportions such that the ratio of equivalents of amine groups plus hydroxy groups (NH+OH), excluding urea, to equivalents of carboxy groups (COOH) in the binder component is within the range of from 0.6 to 1.5 and, optionally, treating the reaction product with a base; and urea in an amount of from 1 to 25 wt.%, based on solids of the binder composition; said alkanolamine, carboxylic anhydride and urea being employed in proportions such that the ratio of total equivalents of amine groups plus hydroxy groups (NH+OH), including urea, to equivalents of carboxy groups (COOH) in the binder composition is between and includes the following lower limit x and upper limit y: x min = NH + OH COOH = 0.04 × wt. % Urea + 0. 6 y max = NH + OH COOH = 0.04 × wt. % Urea + 1.5 a water-soluble binder component obtainable by reacting at least one alkanolamine with at least one carboxylic anhydride in proportions such that the ratio of equivalents of amine groups plus hydroxy groups (NH+OH), excluding urea, to equivalents of carboxy groups (COOH) in the binder component is within the range of from 0.6 to 1.5 and, optionally, treating the reaction product with a base; and urea in an amount of from 1 to 25 wt.%, based on solids of the binder composition; said alkanolamine, carboxylic anhydride and urea being employed in proportions such that the ratio of total equivalents of amine groups plus hydroxy groups (NH+OH), including urea, to equivalents of carboxy groups (COOH) in the binder composition is between and includes the following lower limit x and upper limit y: x min = NH + OH COOH = 0.04 × wt. % Urea + 0. 6 y max = NH + OH COOH = 0.04 × wt. % Urea + 1.5
A coated article demonstrating anti-reflective properties comprising: a substrate; and an anti-reflective coating layer applied to at least a portion of at least one surface of the substrate; wherein the anti-reflective coating layer is formed from an acidic sol-gel composition comprising: (a) tetraalkoxysilane; (b) alkyl trialkoxysilane; (c) a silane-functional acrylic polymer; (d) inorganic oxide particles; (e) a mineral acid; (f) water; and (g) a solvent. a substrate; and an anti-reflective coating layer applied to at least a portion of at least one surface of the substrate; wherein the anti-reflective coating layer is formed from an acidic sol-gel composition comprising: (a) tetraalkoxysilane; (b) alkyl trialkoxysilane; (c) a silane-functional acrylic polymer; (d) inorganic oxide particles; (e) a mineral acid; (f) water; and (g) a solvent. (a) tetraalkoxysilane; (b) alkyl trialkoxysilane; (c) a silane-functional acrylic polymer; (d) inorganic oxide particles; (e) a mineral acid; (f) water; and (g) a solvent.
Method for producing an engraving by means of a laser on the inner surface of a mould part of a vulcanization mould of a pneumatic motor vehicle tyre on the basis of a digital bit-mapped graphic of pixels with a multiplicity of, in particular at least 256, different grey scales, wherein the local laser energy correlates with the grey scales of the pixels from the bit-mapped graphic, comprising the following steps, occurring one after the other and possibly also in parallel with one another: a. scanning the digital bit-mapped graphic to ascertain the grey scale of each pixel, b. engraving the inner surface of the mould part, characterized in that, in step a., a digital photo with an image size of at least 1000 × 1000 pixels is used as the bit-mapped graphic, wherein, in step b., the engraving correlates with the grey scales of the pixels of the digital photo in such a way that it is reproduced on the inner surface of the mould part as an uneven contrasting structure of peaks and troughs replicating the grey scales. a. scanning the digital bit-mapped graphic to ascertain the grey scale of each pixel, b. engraving the inner surface of the mould part, characterized in that, in step a., a digital photo with an image size of at least 1000 × 1000 pixels is used as the bit-mapped graphic, wherein, in step b., the engraving correlates with the grey scales of the pixels of the digital photo in such a way that it is reproduced on the inner surface of the mould part as an uneven contrasting structure of peaks and troughs replicating the grey scales. characterized in that, in step a., a digital photo with an image size of at least 1000 × 1000 pixels is used as the bit-mapped graphic, wherein, in step b., the engraving correlates with the grey scales of the pixels of the digital photo in such a way that it is reproduced on the inner surface of the mould part as an uneven contrasting structure of peaks and troughs replicating the grey scales.
Filter system for a household dishwasher comprising a wash space and a liquid circuit that comprises a coarse sieve and one or several fine filters (18,19), the coarse sieve being movable between at least two positions with the aid of actuating means (29,31) arranged in the dishwasher characterized in that a part of the circulating liquid in the first position (Fig.3) flows tluough a collecting part of the coarse sieve whereas the circulating liquid in the second position (Fig.4) flows outside said collecting part.
A method of filtering one or more video blocks of a video unit during a video coding process, the method comprising: determining whether a video block is inter-coded or intra-coded; applying a post-loop filter or an in-loop filter to the video block when the video block is intra-coded, wherein determining whether to apply the post-loop filter or the in-loop filter is based at least in part on whether the video block includes any non-zero residual values, wherein the post-loop filter is applied for pixel values having zero-value residual values and the in-loop filter is applied for pixel values having non-zero residual values; when the video block is inter-coded, determining whether an adaptive interpolation filter was applied during a motion compensation process with respect to the video block; and when the video block is inter-coded, determining whether to apply the post-loop filter or the in-loop filter to the video block based at least in part on whether the adaptive interpolation filter was applied and on whether the video block includes any non-zero residual values. determining whether a video block is inter-coded or intra-coded; applying a post-loop filter or an in-loop filter to the video block when the video block is intra-coded, wherein determining whether to apply the post-loop filter or the in-loop filter is based at least in part on whether the video block includes any non-zero residual values, wherein the post-loop filter is applied for pixel values having zero-value residual values and the in-loop filter is applied for pixel values having non-zero residual values; when the video block is inter-coded, determining whether an adaptive interpolation filter was applied during a motion compensation process with respect to the video block; and when the video block is inter-coded, determining whether to apply the post-loop filter or the in-loop filter to the video block based at least in part on whether the adaptive interpolation filter was applied and on whether the video block includes any non-zero residual values.