mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for validating resiliency of a networked application, the method comprising: specifying a latency mode or an error mode; identifying a plurality of active application components within a network through which the networked application is provided; selecting a first active application component (102) from the plurality of active application components based on one or more selection criteria; altering all messages transmitted by the first active application component that request access to a specified uniform resource locator, URL, according to a predefined alteration rule, wherein when the latency mode is selected, the altering comprises delaying transmission of the messages, and when the error mode is selected, the altering comprises replacing each message with an error message; and monitoring a second active application component (102) included in the plurality of active application components to determine an effect on the second active application component caused by the altered messages. specifying a latency mode or an error mode; identifying a plurality of active application components within a network through which the networked application is provided; selecting a first active application component (102) from the plurality of active application components based on one or more selection criteria; altering all messages transmitted by the first active application component that request access to a specified uniform resource locator, URL, according to a predefined alteration rule, wherein when the latency mode is selected, the altering comprises delaying transmission of the messages, and when the error mode is selected, the altering comprises replacing each message with an error message; and monitoring a second active application component (102) included in the plurality of active application components to determine an effect on the second active application component caused by the altered messages.
Active energy ray-curable ink for offset printing comprising a pigment, a polyfunctional (meth)acrylate having a hydroxyl group, and a resin having an ethylenic unsaturated group and a hydrophilic group, wherein the hydrophilic group of the resin having an ethylenic unsaturated group and a hydrophilic group includes a carboxyl group and a hydroxyl group, further comprising a hydroxy compound having a molecular weight of 200 or less and containing no (meth) acrylate group, and the content of the hydroxy compound having a molecular weight of 200 or less and containing no (meth)acrylate group in the ink is 0.15% by mass or more and 1.0% by mass or less. wherein the hydrophilic group of the resin having an ethylenic unsaturated group and a hydrophilic group includes a carboxyl group and a hydroxyl group, further comprising a hydroxy compound having a molecular weight of 200 or less and containing no (meth) acrylate group, and the content of the hydroxy compound having a molecular weight of 200 or less and containing no (meth)acrylate group in the ink is 0.15% by mass or more and 1.0% by mass or less.
A method for determining the consistency of fresh concrete, having the following steps: • a predefined quantity of the fresh concrete is applied to a test area; • the test area is shaken in accordance with a predefined time program, wherein the test area is arranged on an upper side of a movable plate which can be moved relative to a base body, and wherein the movable plate with the test area is raised smoothly from the base body by means of at least one electromechanical, pneumatic and/or hydraulic actuator (16a, 16b) for the shaking up to at least one electromagnetic actuator (17a, 17b), and is dropped jerkily onto the base body by means of the at least one electromagnetic actuator (17a, 17b); • the coverage of the test area with the fresh concrete is captured from at least one image of the test area, as well as optionally additionally by at least one sensor coupled to the test area, and wherein optionally during and/or after the shaking, the temporal progress of the coverage of the test area with the fresh concrete is captured from multiple images of the test area and/or from a temporal sequence of measured values of the at least one sensor; • a characteristic for the consistency of the fresh concrete is evaluated from the coverage, wherein pixels of the image of the test area are classified as to whether they belong to the free test area or to the fresh concrete located thereon, and the proportion of the test area which is covered by fresh concrete is assessed as a characteristic of the fresh concrete. • a predefined quantity of the fresh concrete is applied to a test area; • the test area is shaken in accordance with a predefined time program, wherein the test area is arranged on an upper side of a movable plate which can be moved relative to a base body, and wherein the movable plate with the test area is raised smoothly from the base body by means of at least one electromechanical, pneumatic and/or hydraulic actuator (16a, 16b) for the shaking up to at least one electromagnetic actuator (17a, 17b), and is dropped jerkily onto the base body by means of the at least one electromagnetic actuator (17a, 17b); • the coverage of the test area with the fresh concrete is captured from at least one image of the test area, as well as optionally additionally by at least one sensor coupled to the test area, and wherein optionally during and/or after the shaking, the temporal progress of the coverage of the test area with the fresh concrete is captured from multiple images of the test area and/or from a temporal sequence of measured values of the at least one sensor; • a characteristic for the consistency of the fresh concrete is evaluated from the coverage, wherein pixels of the image of the test area are classified as to whether they belong to the free test area or to the fresh concrete located thereon, and the proportion of the test area which is covered by fresh concrete is assessed as a characteristic of the fresh concrete.
A channel member comprising a plurality of plates (4a-4k) that include a hole or a groove and that are stacked together with an adhesive layer interposed therebetween, the hole or the groove constituting a channel, wherein at least one of the plates includes a receiving groove for an adhesive, characterized in that an edge of the receiving groove includes a first projection that projects from a principal surface of the at least one of the plates that includes the receiving groove.
A display driving device that drives a display, the display driving device comprising: a grouper that performs grouping of a plurality of light emitting elements (21 to 2n) arranged on a scanning line of the display into one or more light emitting element groups (G1 to G5) and a driver that drives the one or more light emitting element groups (G1 to G5) so that each driving period into which the frame is divided that univocally corresponds to the one or more groups do not overlap, characterized in that the grouper determines per frame a total number of divided groups when performing the grouping based on average brightness information of the frame included in video information input, wherein when the average brightness of the display is decreasing the number of groups is decreasing, a grouper that performs grouping of a plurality of light emitting elements (21 to 2n) arranged on a scanning line of the display into one or more light emitting element groups (G1 to G5) and a driver that drives the one or more light emitting element groups (G1 to G5) so that each driving period into which the frame is divided that univocally corresponds to the one or more groups do not overlap, characterized in that the grouper determines per frame a total number of divided groups when performing the grouping based on average brightness information of the frame included in video information input, wherein when the average brightness of the display is decreasing the number of groups is decreasing,
A method of wireless communication, comprising: receiving, at a user equipment, UE (115, 900), from a serving base station, wherein the UE is configured by the serving base station for carrier aggregation, CA, using a primary cell, PCell, in dedicated spectrum and secondary cell, SCell, in a shared spectrum, a radio resource management, RRM, measurement configuration for one or more frequency channels of a shared frequency band, the RRM measurement configuration comprising a received signal strength indicator, RSSI, observation period and at least one channel occupancy measurement parameter for the one or more frequency channels, wherein the at least one channel occupancy measurement parameter is an RSSI threshold; determining, at the UE (115, 900) at least one channel occupancy metric for the one or more frequency channels by determining a percentage of time RSSI measurements are above the RSSI threshold over the RSSI observation period, wherein the at least one channel occupancy metric for the one or more frequency channels is determined for a time period including one or more discovery reference signal, DRS, transmissions from a configured SCell (225, 230), wherein the determining comprises subtracting a reference signal received power, RSRP, associated with the configured SCell from a measured received signal strength indicator, RSSI, for the one or more DRS transmissions; and reporting, by the UE (115, 900) to the serving base station (225, 230), the at least one channel occupancy metric. receiving, at a user equipment, UE (115, 900), from a serving base station, wherein the UE is configured by the serving base station for carrier aggregation, CA, using a primary cell, PCell, in dedicated spectrum and secondary cell, SCell, in a shared spectrum, a radio resource management, RRM, measurement configuration for one or more frequency channels of a shared frequency band, the RRM measurement configuration comprising a received signal strength indicator, RSSI, observation period and at least one channel occupancy measurement parameter for the one or more frequency channels, wherein the at least one channel occupancy measurement parameter is an RSSI threshold; determining, at the UE (115, 900) at least one channel occupancy metric for the one or more frequency channels by determining a percentage of time RSSI measurements are above the RSSI threshold over the RSSI observation period, wherein the at least one channel occupancy metric for the one or more frequency channels is determined for a time period including one or more discovery reference signal, DRS, transmissions from a configured SCell (225, 230), wherein the determining comprises subtracting a reference signal received power, RSRP, associated with the configured SCell from a measured received signal strength indicator, RSSI, for the one or more DRS transmissions; and reporting, by the UE (115, 900) to the serving base station (225, 230), the at least one channel occupancy metric.
A hub apparatus, comprising: a first port that is configured to receive predetermined cascade-supplied differential signals from a controller, the controller controlling a plurality of devices; a plurality of second ports (18A-18E) that are configured to receive the predetermined differential signals from the plurality of devices and output the predetermined differential signals to the plurality of devices; a third port that is configured to cascade-output the predetermined differential signals to a hub apparatus at a subsequent stage; a plurality of differential signal line pairs that is configured to daisy-chain connect the first port, the plurality of second ports (18A-18E), and the third port in this order; and a terminator provided between two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port, wherein the hub apparatus further comprises a first switch that is configured to connect and disconnect between the terminator and one of the two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port. a first port that is configured to receive predetermined cascade-supplied differential signals from a controller, the controller controlling a plurality of devices; a plurality of second ports (18A-18E) that are configured to receive the predetermined differential signals from the plurality of devices and output the predetermined differential signals to the plurality of devices; a third port that is configured to cascade-output the predetermined differential signals to a hub apparatus at a subsequent stage; a plurality of differential signal line pairs that is configured to daisy-chain connect the first port, the plurality of second ports (18A-18E), and the third port in this order; and a terminator provided between two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port, wherein the hub apparatus further comprises a first switch that is configured to connect and disconnect between the terminator and one of the two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port.
A shallow angle mining method, comprising: determining a localization of an ore body; planning a path of an extraction shaft passing through the ore body; excavating a lower shaft, the lower shaft intersecting the path of the extraction shaft; excavating a starting station extending from the lower shaft and from a bottom of the path of the extraction shaft; excavating the extraction shaft; excavating an arrival station overhanging above a top of the extraction shaft; and excavating an upper shaft extending from the arrival station; characterized in that the method comprises installing an overhead rail system (200, 202, 204, 210) on an upper surface of the extraction shaft. determining a localization of an ore body; planning a path of an extraction shaft passing through the ore body; excavating a lower shaft, the lower shaft intersecting the path of the extraction shaft; excavating a starting station extending from the lower shaft and from a bottom of the path of the extraction shaft; excavating the extraction shaft; excavating an arrival station overhanging above a top of the extraction shaft; and excavating an upper shaft extending from the arrival station; characterized in that the method comprises installing an overhead rail system (200, 202, 204, 210) on an upper surface of the extraction shaft.
Core box for manufacturing casting cores from a moulding material rigidified by supply of heat, comprising at least two core box parts (2, 3), which together provide the shape of the casting cores to be manufactured and a heating device for heating the core box parts (2, 3), wherein the heating device comprises at least one oil line (27, 30), which is in thermal contact with at least one of the core box parts (2, 3) and is connected to an oil supply which feeds the oil line (27, 30) with a tempered oil for heating the core box parts (2, 3), and wherein at least one of the core box parts (2, 3) is divided into a contour plate (4, 16) providing the shape of the casting core to be manufactured and a heating plate (8, 23) coupled to the contour plate (4, 16) which extends flat over the contour plate (4, 16) and in which the oil line (27, 30) is provided characterised in that the oil line (27, 30) is moulded into the material of the heating plate (8, 23) in the form of a groove which is formed into the side of the heating plate (8, 23)which extends parallel to the associated contour plate (4, 16).
A computer-implemented method for delivering information from a first device to a second device, comprising the steps of: storing a first data object on the first device in a first device-specific representation, wherein the second device stores a second data object corresponding to the first data object in a second device-specific representation, wherein the second device-specific representation differs from the first device-specific representation; generating a modification event representative of a modification made to the first data object on the first device, wherein the modification event comprises an email message; forwarding said modification event to the second device after the second device has connected to a network from an off-line mode, wherein the second device processes said modification event so as to update the second data object, the processing comprising recognizing, by the second device, the email message as a modification event and parsing the email message to recover the modification; and updating a data store based on an acknowledgement received from the second device, wherein the received acknowledgement includes information detailing the successful processing of the modification event by the second device. storing a first data object on the first device in a first device-specific representation, wherein the second device stores a second data object corresponding to the first data object in a second device-specific representation, wherein the second device-specific representation differs from the first device-specific representation; generating a modification event representative of a modification made to the first data object on the first device, wherein the modification event comprises an email message; forwarding said modification event to the second device after the second device has connected to a network from an off-line mode, wherein the second device processes said modification event so as to update the second data object, the processing comprising recognizing, by the second device, the email message as a modification event and parsing the email message to recover the modification; and updating a data store based on an acknowledgement received from the second device, wherein the received acknowledgement includes information detailing the successful processing of the modification event by the second device.
An axial air gap rotating electric machine comprising a stator in which a plurality of core members including an iron core made of a pillar body shape having an end surface in a substantially trapezoid shape, a coil wound in an outer periphery direction of the iron core, and a bobbin disposed between the iron core and the coil are arranged in an annular shape around a rotation axis, and a rotator facing an end surface of the iron core with a predetermined air gap interposed in a rotation axis diameter direction, characterised in that the bobbin includes: a tube portion facing an outer periphery side surface of the iron core and being shorter than a length of the iron core; flange portions provided around both end portions of the tube portion and extending a predetermined length to an external side of a direction perpendicular to an outer periphery of the tube portion; and a protruding portion (10, 11) provided on a surface of an external side of at least one of the flange portions and at the innermost periphery of the bobbin close to an inner edge of the tube portion so as to be adapted to receive the load of a wire winding jig (51, 52) used for winding the coil, and having an inner periphery surface facing an end portion outer periphery side surface of the inserted iron core and further protruding in a drawing direction of the tube portion. a tube portion facing an outer periphery side surface of the iron core and being shorter than a length of the iron core; flange portions provided around both end portions of the tube portion and extending a predetermined length to an external side of a direction perpendicular to an outer periphery of the tube portion; and a protruding portion (10, 11) provided on a surface of an external side of at least one of the flange portions and at the innermost periphery of the bobbin close to an inner edge of the tube portion so as to be adapted to receive the load of a wire winding jig (51, 52) used for winding the coil, and having an inner periphery surface facing an end portion outer periphery side surface of the inserted iron core and further protruding in a drawing direction of the tube portion.
An ingredient-containing liquid seasoning, comprising: a solid ingredient selected from the group consisting of fruit peel, fruit pulp, and combination thereof; water-insoluble powder selected from the group consisting of soybean curd residue powder, soybean powder, roasted soybean flour, rice powder, commeal, amaranth powder, and combination thereof; at least one selected from a fruit juice, a vegetable juice, and a colorant; and a viscosity adjuster, wherein the liquid seasoning has a viscosity of at least 500 mPa·s when measured by a B-type viscometer at ambient temperature, and the water-insoluble powder in the liquid seasoning is 0.05% to 3.0% by mass. a solid ingredient selected from the group consisting of fruit peel, fruit pulp, and combination thereof; water-insoluble powder selected from the group consisting of soybean curd residue powder, soybean powder, roasted soybean flour, rice powder, commeal, amaranth powder, and combination thereof; at least one selected from a fruit juice, a vegetable juice, and a colorant; and a viscosity adjuster, wherein the liquid seasoning has a viscosity of at least 500 mPa·s when measured by a B-type viscometer at ambient temperature, and the water-insoluble powder in the liquid seasoning is 0.05% to 3.0% by mass.
A method of performing an automated changeover process within a stencil printer, the method comprising: identifying at least one item for replacement within the stencil printer; transporting a new item to the stencil printer by a movable cart; removing a used item identified for replacement and delivering the used item to the movable cart; and installing the new item within the stencil printer from the movable cart, wherein the movable cart includes a first support configured to receive the new item and a second support configured to receive the used item, characterized in that the movable cart is configured to transport the new item to the stencil printer and to transport the used item to a station. identifying at least one item for replacement within the stencil printer; transporting a new item to the stencil printer by a movable cart; removing a used item identified for replacement and delivering the used item to the movable cart; and installing the new item within the stencil printer from the movable cart, wherein the movable cart includes a first support configured to receive the new item and a second support configured to receive the used item, characterized in that the movable cart is configured to transport the new item to the stencil printer and to transport the used item to a station.
An inhibitor of Janus kinase - Signal Transducer and Activator of Transcription (JAK-STAT) pathway for use in the treatment of a congenital myopathy, wherein the congenital myopathy is selected from the group consisting of: central core disease, multiminicore disease (MmD), centronuclear myopathy, nemaline myopathy, core-rod myopathy, and congenital fiber-type disproportion (CFTD), and wherein the inhibitor of JAK-STAT is: (i) an antisense oligonucleotide that inhibits JAK or STAT; or (ii) a small interfering RNA (siRNA) that inhibits JAK or STAT; or (iii) an antibody that inhibits JAK or STAT; or (iv) selected from the group consisting of: nifuroxazide, ketoprofen, sulfasalazine, 5,15-diphenylporphyrin, and AG490. (i) an antisense oligonucleotide that inhibits JAK or STAT; or (ii) a small interfering RNA (siRNA) that inhibits JAK or STAT; or (iii) an antibody that inhibits JAK or STAT; or (iv) selected from the group consisting of: nifuroxazide, ketoprofen, sulfasalazine, 5,15-diphenylporphyrin, and AG490.