mhurhangee/ep-ind-claims huggingface dataset:
An image-forming apparatus comprising: a first converter configured to perform image position correction in a subscanning direction in units of less than one pixel by changing distribution of intermediate gradation values of a plurality of pixels; an image-forming device configured to form at least one toner image onto an image bearing member on the basis of image information corrected by the first converter; a controller configured to cause the image-forming device to form a test toner image including a first pattern and a second pattern, the first pattern being a pattern forming one line based on one pixel, the second pattern being a pattern forming one line based on two intermediate gradation pixels; a detector configured to detect density of the test toner image that is formed by the image-forming device; and an adjuster configured to, depending on a result of the first pattern and the second pattern detected by the detector, adjust the distribution of the intermediate gradation values for performing the image position correction in the subscanning direction in units of less than one pixel. a first converter configured to perform image position correction in a subscanning direction in units of less than one pixel by changing distribution of intermediate gradation values of a plurality of pixels; an image-forming device configured to form at least one toner image onto an image bearing member on the basis of image information corrected by the first converter; a controller configured to cause the image-forming device to form a test toner image including a first pattern and a second pattern, the first pattern being a pattern forming one line based on one pixel, the second pattern being a pattern forming one line based on two intermediate gradation pixels; a detector configured to detect density of the test toner image that is formed by the image-forming device; and an adjuster configured to, depending on a result of the first pattern and the second pattern detected by the detector, adjust the distribution of the intermediate gradation values for performing the image position correction in the subscanning direction in units of less than one pixel.
A computer-implemented method of debugging delivery of content items, the method comprising: presenting, by a mobile application executing on a mobile device, a first application interface; generating debugging information from content event logs, wherein the content event logs are associated with content item slots in which content items are presented in the mobile application and wherein the debugging information includes status information of the content items based on the content event logs; detecting, by the mobile device, a predetermined user action; in response to detecting the predetermined user action, presenting, by a debugging interface, the debugging information; and remediating, by the debugging interface, a first exception of the debugging information based on modifying a configuration of the delivery of content items. presenting, by a mobile application executing on a mobile device, a first application interface; generating debugging information from content event logs, wherein the content event logs are associated with content item slots in which content items are presented in the mobile application and wherein the debugging information includes status information of the content items based on the content event logs; detecting, by the mobile device, a predetermined user action; in response to detecting the predetermined user action, presenting, by a debugging interface, the debugging information; and remediating, by the debugging interface, a first exception of the debugging information based on modifying a configuration of the delivery of content items.
An alloy endowed with high-temperature mechanical strength in an oxidizing medium, the percentage weight content of each of the elements molybdenum and/or tungsten in the alloy being less than 1% and comprising a chromium-containing matrix strengthened by precipitation of carbides, characterized in that it comprises carbides of at least one metal chosen from titanium and zirconium, said carbides further containing tantalum (M'), and in that it is essentially composed of the following elements, the proportions being indicated in percentages by weight of the alloy: Cr 23 to 34% Ni 6 to 12% M = Zr or Ti 0.2 to 7% M' = Ta 0.5 to 7% C 0.2 to 1.2% Fe less than 3% Si less than 1% Mn less than 0.5%, the balance consisting of cobalt and inevitable impurities.
A method for testing a rotational speed relay of a wind energy installation, in which the wind energy installation comprises a rotational speed sensor (20, 21, 22) for the rotational speed of a shaft (15, 16), in which the rotational speed sensor (20, 21, 22) outputs a rotational speed signal, in which the rotational speed signal is supplied to a signal input (25, 26, 27) of the rotational speed relay, and in which the rotational speed relay generates a switch-off command if the rotational speed of the shaft (15, 16) exceeds a predefined rotational speed limit value (n limit), having the following steps of: a. deactivating the rotational speed signal supplied to the rotational speed relay; b. activating a signal generator which generates a test signal equivalent to the rotational speed signal and supplying the test signal to the signal input (25, 26, 27) of the rotational speed relay; c. operating the signal generator with a test signal beyond the rotational speed limit value (n limit); d. testing the switch-off command from the rotational speed relay. a. deactivating the rotational speed signal supplied to the rotational speed relay; b. activating a signal generator which generates a test signal equivalent to the rotational speed signal and supplying the test signal to the signal input (25, 26, 27) of the rotational speed relay; c. operating the signal generator with a test signal beyond the rotational speed limit value (n limit); d. testing the switch-off command from the rotational speed relay.
Drive unit having a spindle drive and a spindle-drive drive motor, the spindle-drive drive motor having a rotor, and a spindle of the spindle drive being arranged within the rotor which acts as a spindle nut and comprises a hollow shaft, characterized in that the axially movable spindle is guided such that it cannot rotate in a housing of the drive unit, the spindle having an anti-rotation safeguard which comprises a plurality of guide pins which are connected at one longitudinal axial end to a spindle main body and are guided in an axially movable manner in complementary guide openings of the housing.
A method for updating a working map of a mobile robot (7000; 9000) comprising: obtaining (1001; 1001a-1001f; 2001-2007; 10010, 30010-30030) M detected environment maps, wherein the M detected environment maps are determined based on object distribution information detected by the mobile robot (7000; 9000) in a current moving process, and M is an integer greater than 1 and merging (1002; 10020; 30040) the M detected environment maps to obtain a merged environment map; characterized in that the method further comprises the step of: performing (1003; 10040; 30050) weighting processing on a pixel value of the merged environment map and a pixel value of a currently stored environment layout map to obtain an updated environment layout map, wherein the currently stored environment layout map is obtained by performing weighting processing on a merged environment map obtained through merging in a last time moving process and an environment layout map stored in the last time moving process.
A device for generating tactile feedback, the device comprising a first enclosure; at least one loudspeaker mounted in a wall of the first enclosure between the inside and the outside of the first enclosure and configured to produce sound waves; at least one first membrane mounted in a wall of the first enclosure between the inside and the outside of the first enclosure; a second enclosure, wherein the at least one loudspeaker is mounted between the first enclosure and the second enclosure, wherein the pressure inside the first enclosure changes depending on the sound waves produced by the at least one loudspeaker and wherein the pressure inside the second enclosure changes depending on the sound waves produced by the at least one loudspeaker, and wherein the at least one first membrane is configured to be stimulated to vibrate depending on the pressure inside the first enclosure and to be brought in contact with an object to provide tactile feedback; characterised in that at least one second membrane is mounted in a wall of the second enclosure between the inside and the outside of the second enclosure and the at least one second membrane is configured to be stimulated to vibrate depending on the pressure inside the second enclosure and to be brought in contact with an object to provide tactile feedback.
A sheet sorting apparatus comprising: a first tray (210, 211) detachable from an apparatus main body; a second tray (211, 212) arranged below the first tray; conveyance means (201, 202) for conveying a sheet to either of the first and the second trays; tray detection means (407, 408) configured to detect that the first tray is detached from the apparatus main body; stacking amount detection means (405, 406, 431, 432) configured to detect that an amount of sheets stacked on the second tray reaches a predetermined amount; and control means configured to control the conveyance means not to convey the sheet to the second tray, in a case where the stacking amount detection means detects that the amount of sheets reaches the predetermined amount, wherein after conveyance of the sheet to the second tray by the conveyance means is stopped in a case where the stacking amount detection means detects that the amount of sheets reaches the predetermined amount, the control means is configured to permit the conveyance means to convey the sheet to the second tray in a case where the tray detection means detects that the first tray is detached from the apparatus main body. a first tray (210, 211) detachable from an apparatus main body; a second tray (211, 212) arranged below the first tray; conveyance means (201, 202) for conveying a sheet to either of the first and the second trays; tray detection means (407, 408) configured to detect that the first tray is detached from the apparatus main body; stacking amount detection means (405, 406, 431, 432) configured to detect that an amount of sheets stacked on the second tray reaches a predetermined amount; and control means configured to control the conveyance means not to convey the sheet to the second tray, in a case where the stacking amount detection means detects that the amount of sheets reaches the predetermined amount, wherein after conveyance of the sheet to the second tray by the conveyance means is stopped in a case where the stacking amount detection means detects that the amount of sheets reaches the predetermined amount, the control means is configured to permit the conveyance means to convey the sheet to the second tray in a case where the tray detection means detects that the first tray is detached from the apparatus main body.
Compound containing at least one unit of the formula with X being a structure element comprising at least one nitrogen atom with a positive charge bonded to C 1 and C 2 and bonded via two bonds to one or two hydrocarbon radical(s) comprising 1 to 12, preferably 1 to 6, more preferably 1 or 5 carbon atoms and Z being a structure element comprising a carbon atom being bonded to C 3 and C 4 and at least one aromatic 6-ring directly bonded to one of the oxygen atoms, wherein said aromatic 6-ring is substituted in position 3 and 5 with the same or different alkyl group having from 1 to 4 carbon atoms, preferably being a methyl, iso-propyl or tert-butyl group, more preferably being a methyl group.
Terminal block for connecting electric wires (1,1a) comprising + an insulating body (10;110;210) with an annular structure (11;111) formed in the manner of two partial octagons which are situated facing each other relative to a vertical axis (Z-Z) and identifying at least one respective front end side (11a; 111a) and at least one respective flank, said structure (11;111) defining a seat which is open towards outside in a transverse direction (Y-Y) for housing a conducting part (20;2020), a front end side (11a;111a) of the insulating body being provided with a corresponding opening (13;113) able to allow said seat to communicate with the exterior and to introduce an operating tool (3;103)along a vertical direction parallel to said vertical axis (Z-Z), a lateral flank of the insulating body being provided with a corresponding opening able to allow said seat to communicate with the exterior to introduce a wire along a longitudinal direction (X-X) orthogonal to both said vertical axis (Z-Z) and transverse direction (Y-Y), + a conducting part housed inside it and associated with retaining means (30;130;230) for retaining the free end of the electric wire, wherein said conducting part has a U-shaped form wherein said U-shaped conducting part has a base extending outwards in the longitudinal direction (X-X) at both longitudinal opposite ends so as to form two flanges with their tip inclined towards the front end side (11a; 111a), wherein the inner surface of each of the lateral flanks presents a seat corresponding to said tip, characterised in that said tips of the flanges of the conducting part engage said seats of the insulating body (10; 110; 210) thereby stably fixing the conducting part to the insulating body (10;110;210).
A process for the preparation of microcapsules encapsulating at least one active agent in a metal oxide shell comprising the steps of: - Preparing a non-hydrous emulsion comprising at least one polar phase, at least one non-polar phase, at least one active agent, at least one metal oxide precursor, at least one condensation precursor and at least one surface active agent; - Subjecting said non-hydrous emulsion to at least one condition allowing the formation of a metal oxide shell encapsulating said at least one active agent; thereby forming said microcapsules; wherein said process is a non-aqueous process. - Preparing a non-hydrous emulsion comprising at least one polar phase, at least one non-polar phase, at least one active agent, at least one metal oxide precursor, at least one condensation precursor and at least one surface active agent; - Subjecting said non-hydrous emulsion to at least one condition allowing the formation of a metal oxide shell encapsulating said at least one active agent; thereby forming said microcapsules; wherein said process is a non-aqueous process.
A polymer blend composition, comprising: (a) from 65 wt% to 90 wt% based on the total weight of the blend of an ethylene α-olefin elastomer having either no crystallinity or crystallinity derived from ethylene, having greater than75 wt% units derived from ethylene; and (b) from 10 wt% to 35 wt% based on the total weight of the blend of a propylene polymer having 40 wt% or more units derived from propylene, having a heat of fusion equal to or below 75 J/g, and having isotactically arranged propylene derived sequences; wherein the polymer blend composition has a melt index (measured at 2.16 kg at 190°C) of 0.01 to 10 g/10 min; and wherein the ethylene α-olefin elastomer and the propylene polymer are prepared in separate reactors arranged in parallel configuration. (a) from 65 wt% to 90 wt% based on the total weight of the blend of an ethylene α-olefin elastomer having either no crystallinity or crystallinity derived from ethylene, having greater than75 wt% units derived from ethylene; and (b) from 10 wt% to 35 wt% based on the total weight of the blend of a propylene polymer having 40 wt% or more units derived from propylene, having a heat of fusion equal to or below 75 J/g, and having isotactically arranged propylene derived sequences; wherein the polymer blend composition has a melt index (measured at 2.16 kg at 190°C) of 0.01 to 10 g/10 min; and wherein the ethylene α-olefin elastomer and the propylene polymer are prepared in separate reactors arranged in parallel configuration. wherein the polymer blend composition has a melt index (measured at 2.16 kg at 190°C) of 0.01 to 10 g/10 min; and wherein the ethylene α-olefin elastomer and the propylene polymer are prepared in separate reactors arranged in parallel configuration.
A device for extension of a single stranded target molecule, wherein the device is a polynucleotide comprising Structure 1: Structure 1 3' P Y R S L S' Y' 5' wherein: P is a primer sequence through which at least the 3' end of the target molecule hybridizes to the device; Y is product sequence; R is replication blocking group; S is a stem sequence; L is a loop region; S' is a sequence which hybridizes to S; Y' is a sequence which hybridizes to Y; and wherein each of S and S' is optionally present in the device, wherein the presence of S' is dependent on the presence of S in the device, wherein Y, R, S, L, S', and Y' form a hairpin structure, wherein Y comprises or consists of a sequence P Y which is identical to priming sequence P. P is a primer sequence through which at least the 3' end of the target molecule hybridizes to the device; Y is product sequence; R is replication blocking group; S is a stem sequence; L is a loop region; S' is a sequence which hybridizes to S; Y' is a sequence which hybridizes to Y; and
A liquid conduit element for a lateral flow test device, the element being formed from at least a first and a second substrate, each substrate having at least two layers, including: a) a liquid conduit layer not exceeding 75 μm in thickness formed from a liquid porous material forming a liquid conduit; and b) a second layer of additional thickness formed from a generally non-porous polymer material and forming a backing to the liquid conduit layer, wherein the conduit layer of the second substrate has a high protein binding capacity so as to be capable of holding protein molecules sorbed thereon with high affinity, the element being characterised in that the first and second substrates overlap in series such that their respective liquid conduit layers are in contact where the substrates overlap, and in that the liquid conduit layer of the first substrate has no, or has a low protein binding capacity so as to be capable of readily giving up protein molecules sorbed thereon. a) a liquid conduit layer not exceeding 75 μm in thickness formed from a liquid porous material forming a liquid conduit; and b) a second layer of additional thickness formed from a generally non-porous polymer material and forming a backing to the liquid conduit layer, wherein the conduit layer of the second substrate has a high protein binding capacity so as to be capable of holding protein molecules sorbed thereon with high affinity,
A method of controlling access in a cellular communication system having a radio access network, RAN, in communication with a core network, CN, the RAN comprising a femto radio network controller, RNC (16, 22), communicating with a plurality of femto radio base stations,RBSs, for covering femto cells, the method comprising implementing access logic within the RAN for determining whether a given mobile user equipment, UE, is authorized to access the system through a given femto RBS, receiving a Location Update Request from a UE wishing to access a femto RBS of the plurality of femto RBSs, said Location Update Request including a Temporary Mobile Subscriber Identity, TMSI, assigned to the UE, in response to receiving the Location Update Request, triggering an Identification procedure in which the RAN requests the UE to send the UE's International Mobile Subscriber Identity, IMSI, to the RAN, in response to the identification request, receiving, by the RAN, an uplink message from the UE with the UE's IMSI, the uplink message including an uplink message sequence number from the UE, determining by an access control procedure using the access logic in the RAN, whether the UE's IMSI is associated with the femto RBS, if it is determined that the UE's IMSI is associated with the femto RBS, forwarding the Location Update Request to the CN, wherein the method further comprises correcting, by the RAN, uplink message sequence numbers between the UE and the CN to provide uplink sequence numbers expected by the CN when the UE is granted access to the CN.
A method to recover and purify methanol from a stripped off gas stream, comprising the steps of: obtaining, at a controlled rate, a foul gas feed feed comprising no more than approximately 40 wt% methanol; condensing said foul gas feed; decanting immiscible contaminants from said condensed foul gas feed; distilling said condensed foul gas feed in the presence of an acid to evaporate volatile components, leaving a contaminated methanol feed, said acid being supplied at an entry point below an input point of said condensed foul gas feed; refining (97,60) said contaminated methanol feed by heating (59,68) to evaporate methanol from said contaminated methanol feed and removing impurities as an underflow (63,65,72,74); and further refining (99,62) said evaporated methanol by removing impurities as an overhead vapour flow (73,78) to produce purified methanol(75,90).
A computer-implemented method comprising: receiving a plurality of audio files, each of the plurality of audio files corresponding to a voice query; determining, for each of the plurality of audio files, whether the audio file is a first type of audio file or a second type of audio file, wherein a first type of audio file is capable of being processed, based on a characteristic of the audio file and without speech recognition, to recognize the associated voice query and a second type of audio file is not capable of being processed, based on a characteristic of the audio file and without speech recognition, to recognize the associated voice query; processing one or more of the first type of audio files based on a characteristic of the audio file; determining a priority for each of the second type of audio files; and sending, to a server, one or more of the second type of audio files for speech recognition processing based on the determined priority of the one or more audio files. receiving a plurality of audio files, each of the plurality of audio files corresponding to a voice query; determining, for each of the plurality of audio files, whether the audio file is a first type of audio file or a second type of audio file, wherein a first type of audio file is capable of being processed, based on a characteristic of the audio file and without speech recognition, to recognize the associated voice query and a second type of audio file is not capable of being processed, based on a characteristic of the audio file and without speech recognition, to recognize the associated voice query; processing one or more of the first type of audio files based on a characteristic of the audio file; determining a priority for each of the second type of audio files; and sending, to a server, one or more of the second type of audio files for speech recognition processing based on the determined priority of the one or more audio files.