mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling multiple services in a communication network, the method comprising: a node, of the communication network, receiving a request (101; 201) relating to one of the multiple services, wherein the multiple services are provided by multiple application servers included in the communication network; the node determining whether an overload with respect to the service is present; in response to determining absence of the overload with respect to the service, the node forwarding the request (101; 201) for further processing by a corresponding application server; and in response to determining presence of the overload with respect to the service, the node responding to the request (101; 201) with a failure message (102; 204), the failure message (102; 204) indicating that the request (101; 201) was not processed, and the failure message (102; 204) comprising an indication of a time window after which the request (101; 201) may be retried and an identifier of the service to which the request (101; 201) relates. a node, of the communication network, receiving a request (101; 201) relating to one of the multiple services, wherein the multiple services are provided by multiple application servers included in the communication network; the node determining whether an overload with respect to the service is present; in response to determining absence of the overload with respect to the service, the node forwarding the request (101; 201) for further processing by a corresponding application server; and in response to determining presence of the overload with respect to the service, the node responding to the request (101; 201) with a failure message (102; 204), the failure message (102; 204) indicating that the request (101; 201) was not processed, and the failure message (102; 204) comprising an indication of a time window after which the request (101; 201) may be retried and an identifier of the service to which the request (101; 201) relates.
A raceway for shrimp production, comprising: a sloped base with an apex and a thickness from about 5mm to about 400mm and a width from about 100mm to about 1m, a divider extending upward from the apex, two side walls (201A, 201B), each opposing and parallel to the divider sufficient to form two elongated channels on the sloped base; and at least two tapered ends in fluid communication with the channels, each tapered end configured as a recovery zone and including: an end wall, a pit, and a sloped floor extending from the sloped base to the end wall or pit, and arranged between the sloped base and the pit such that the sloped floor has a downward slope towards one or more of the end walls and is in contact with the tapered ends to increase a cross-sectional area of the channel. a sloped base with an apex and a thickness from about 5mm to about 400mm and a width from about 100mm to about 1m, a divider extending upward from the apex, two side walls (201A, 201B), each opposing and parallel to the divider sufficient to form two elongated channels on the sloped base; and at least two tapered ends in fluid communication with the channels, each tapered end configured as a recovery zone and including: an end wall, a pit, and a sloped floor extending from the sloped base to the end wall or pit, and arranged between the sloped base and the pit such that the sloped floor has a downward slope towards one or more of the end walls and is in contact with the tapered ends to increase a cross-sectional area of the channel. an end wall, a pit, and a sloped floor extending from the sloped base to the end wall or pit, and arranged between the sloped base and the pit such that the sloped floor has a downward slope towards one or more of the end walls and is in contact with the tapered ends to increase a cross-sectional area of the channel.
A plug for retaining a filter screen in a fluid port of a servovalve, the plug comprising an annular body, the annular body comprising: opposed first and second axial annular end surfaces (24, 26); a radially inner surface extending between the first and second axial annular end surfaces (24, 26); a radially outer surface extending between the first and second axial annular end surfaces (24, 26); and at least one recess formed in the radially inner surface for receiving a tool for removing the plug from the port, characterised in that: the annular body further comprises a plurality of slots formed in the first axial annular end surface and extending into the at least one recess for providing access for the tool to the at least one recess. opposed first and second axial annular end surfaces (24, 26); a radially inner surface extending between the first and second axial annular end surfaces (24, 26); a radially outer surface extending between the first and second axial annular end surfaces (24, 26); and at least one recess formed in the radially inner surface for receiving a tool for removing the plug from the port, characterised in that: the annular body further comprises a plurality of slots formed in the first axial annular end surface and extending into the at least one recess for providing access for the tool to the at least one recess.
A mass spectrometer comprising: a mass spectrometry section that separates an ionized sample gas; an ion source that ionizes the sample gas; a thin pipe that introduces the sample gas into the ion source; an insertion hole which is provided on the ion source and connects the thin pipe and the ion source, and disconnects the thin pipe from the ion source by removing the thin pipe; and an on-off valve for opening and closing the insertion hole, wherein the thin pipe and the on-off valve are configured to approach each other in accordance with the forward movement of the thin pipe to be inserted to the insertion hole, and the thin pipe is configured to be removed and away from the insertion hole in accordance with the backward movement of the thin pipe to be removed from the insertion hole, characterized in that: the ion source has an internal pressure thereof reduced by differential pumping from the mass spectrometry section; a gap between the thin pipe and the insertion hole is sealed by inserting the thin pipe through the insertion hole; the on-off valve is configured to start the valve opening to pass the thin pipe through the insertion hole when the distance between the thin pipe and the on-off valve is shortened to a first predetermined distance; and the on-off valve is configured to complete the valve closing when the distance between the thin pipe and the insertion hole is lengthened to a second predetermined distance. a mass spectrometry section that separates an ionized sample gas; an ion source that ionizes the sample gas; a thin pipe that introduces the sample gas into the ion source; an insertion hole which is provided on the ion source and connects the thin pipe and the ion source, and disconnects the thin pipe from the ion source by removing the thin pipe; and an on-off valve for opening and closing the insertion hole, wherein the thin pipe and the on-off valve are configured to approach each other in accordance with the forward movement of the thin pipe to be inserted to the insertion hole, and the thin pipe is configured to be removed and away from the insertion hole in accordance with the backward movement of the thin pipe to be removed from the insertion hole, the ion source has an internal pressure thereof reduced by differential pumping from the mass spectrometry section; a gap between the thin pipe and the insertion hole is sealed by inserting the thin pipe through the insertion hole; the on-off valve is configured to start the valve opening to pass the thin pipe through the insertion hole when the distance between the thin pipe and the on-off valve is shortened to a first predetermined distance; and the on-off valve is configured to complete the valve closing when the distance between the thin pipe and the insertion hole is lengthened to a second predetermined distance.
A motor apparatus for a vehicle, the motor apparatus comprising: a motor unit configured to generate power for driving the vehicle; an inverter unit configured to generate AC power for driving the motor unit; a case having a motor space, an inverter space, and a cooling passage, the motor space accommodating the motor unit, the inverter space accommodating the inverter unit, the cooling passage being configured to let cooling medium flow through the cooling passage to cool the motor unit and the inverter unit; and a pump configured to forward the cooling medium to the cooling passage, the motor apparatus being characterized in that the pump is disposed in a surrounding space within the motor space, the surrounding space being at a periphery of a rotation angle sensor fixed to a shaft of the motor unit. a motor unit configured to generate power for driving the vehicle; an inverter unit configured to generate AC power for driving the motor unit; a case having a motor space, an inverter space, and a cooling passage, the motor space accommodating the motor unit, the inverter space accommodating the inverter unit, the cooling passage being configured to let cooling medium flow through the cooling passage to cool the motor unit and the inverter unit; and a pump configured to forward the cooling medium to the cooling passage, the motor apparatus being characterized in that the pump is disposed in a surrounding space within the motor space, the surrounding space being at a periphery of a rotation angle sensor fixed to a shaft of the motor unit.
Method for execution by an electronically controlled light operating device, wherein the light operating device is supplied with a supply voltage via a first connection and receives an output signal of a motion detector via a second connection, wherein the method comprises the following steps: • evaluation of the output signal of the motion detector connected to the same supply voltage, said motion detector, as a function of the detection of a motion, either transmitting the supply voltage as an output signal or outputting no output signal, and • driving of outputs for connecting lights to one of a plurality of predetermined dimming levels as a function of the output signal of the motion detector, wherein at least one of the predetermined dimming levels is programmable. • evaluation of the output signal of the motion detector connected to the same supply voltage, said motion detector, as a function of the detection of a motion, either transmitting the supply voltage as an output signal or outputting no output signal, and • driving of outputs for connecting lights to one of a plurality of predetermined dimming levels as a function of the output signal of the motion detector,
Device for supporting a number of elongate elements in lying position on a deck of a vessel, comprising a number of elongate support structures which run mutually parallel and each comprise two support parts, placed at a mutual distance in a longitudinal direction of the support structure and connected to the deck, for peripheral parts of an element, wherein the device further comprises displacing means, configured to displace an element received in a support structure relative to the deck and parallel to the deck in the lying position, characterized in that the support parts of a support structure in unloaded state, in which no element is present in the support parts, are rotatable around an axis running perpendicularly of the deck or are collapsible in a direction running perpendicularly of the longitudinal direction of the support structure.
A method of forming a surfactant composition, the method comprising: a. combining i. a C 12-14 aliphatic straight chain alcohol, and ii. a C 10 aliphatic branched chain alcohol in a single reaction vessel to provide an alcohol mixture wherein the C 12-14 aliphatic straight chain alcohol and the C10 aliphatic branched chain alcohol are combined in a weight ratio of from about 0.8:1 to 1.4:1; and b. ethoxylating the alcohol mixture to provide a surfactant composition, wherein: a stained fabric subjected to a laundry wash trial with the surfactant composition exhibits a reflectance at 460 nm that is within 5% of a reflectance observed at 460 nm on a stained fabric subjected to a laundry wash trial with a reference composition, the reference composition comprises a physical mixture of ethoxylated C 10 aliphatic branched chain alcohol having 5 moles ethoxylate and ethoxylated C 12-14 aliphatic straight chain alcohol having 7 moles ethoxylate in a weight ratio of 1:1, the laundry wash trial comprises laundering of the fabric in deionized water at 40 °C with a dosage of 0.2 % of the surfactant or reference composition in accordance with ASTM-3050-70, and the stained fabric is a cotton polyester blend. a. combining i. a C 12-14 aliphatic straight chain alcohol, and ii. a C 10 aliphatic branched chain alcohol in a single reaction vessel to provide an alcohol mixture wherein the C 12-14 aliphatic straight chain alcohol and the C10 aliphatic branched chain alcohol are combined in a weight ratio of from about 0.8:1 to 1.4:1; and i. a C 12-14 aliphatic straight chain alcohol, and ii. a C 10 aliphatic branched chain alcohol in a single reaction vessel to provide an alcohol mixture wherein the C 12-14 aliphatic straight chain alcohol and the C10 aliphatic branched chain alcohol are combined in a weight ratio of from about 0.8:1 to 1.4:1; and b. ethoxylating the alcohol mixture to provide a surfactant composition, a stained fabric subjected to a laundry wash trial with the surfactant composition exhibits a reflectance at 460 nm that is within 5% of a reflectance observed at 460 nm on a stained fabric subjected to a laundry wash trial with a reference composition, the reference composition comprises a physical mixture of ethoxylated C 10 aliphatic branched chain alcohol having 5 moles ethoxylate and ethoxylated C 12-14 aliphatic straight chain alcohol having 7 moles ethoxylate in a weight ratio of 1:1, the laundry wash trial comprises laundering of the fabric in deionized water at 40 °C with a dosage of 0.2 % of the surfactant or reference composition in accordance with ASTM-3050-70, and the stained fabric is a cotton polyester blend.
A method for manufacturing a disposable absorbent article having multiple components, the method comprising: selecting a first material appropriate for use as an outer cover (40; 237); producing a chassis including the outer cover (40; 237), the outer cover including an outer cover central region (75; 275) having an outer cover central region texture; selecting a second material appropriate for use as an elastic side or body panel, wherein the second material is different from the first material; producing a first elastic side or body (34, 134; 222, 226) panel having a first elastic panel central region (76; 276); and attaching the first elastic side or body panel to the chassis, wherein the selecting is performed such that the first elastic panel central region gives the appearance of being identical in texture to the outer cover central region texture; wherein the first material is essentially flat; and wherein the second material is a composite that includes an elastic film formed from one or more elastomeric polymers that are melt-processible laminated to a meltblown facing, wherein the second material has a corrugation density of greater than 1.2 corrugations per linear mm, and corrugation height of less than 700um. selecting a first material appropriate for use as an outer cover (40; 237); producing a chassis including the outer cover (40; 237), the outer cover including an outer cover central region (75; 275) having an outer cover central region texture; selecting a second material appropriate for use as an elastic side or body panel, wherein the second material is different from the first material; producing a first elastic side or body (34, 134; 222, 226) panel having a first elastic panel central region (76; 276); and attaching the first elastic side or body panel to the chassis, wherein the selecting is performed such that the first elastic panel central region gives the appearance of being identical in texture to the outer cover central region texture; wherein the first material is essentially flat; and wherein the second material is a composite that includes an elastic film formed from one or more elastomeric polymers that are melt-processible laminated to a meltblown facing, wherein the second material has a corrugation density of greater than 1.2 corrugations per linear mm, and corrugation height of less than 700um.
A compound represented by the following chemical structural formula: or a pharmaceutically acceptable salt thereof for use in treating or preventing nephrotic syndrome.
An electrolyte comprising a lithium salt, a non-aqueous organic solvent, and an additive, and the additive comprising a compound represented by Formula I or Formula II: wherein, in Formula I, R 1 -R 6 are each independently selected from hydrogen atom, halogen atom, trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2 -C12 alkenylene group, and an unsubstituted C6-C26 arylene group; in Formula II, R 9 and R 12 are each independently selected from hydrogen atom, halogen atom, trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2 -C12 alkenylene group, and an unsubstituted C6-C26 arylene group, R 7 -R 8 and R 10 -R 11 are each independently selected from trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2-C12 alkenylene group, and an unsubstituted C6-C26 arylene group. wherein, in Formula I, R 1 -R 6 are each independently selected from hydrogen atom, halogen atom, trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2 -C12 alkenylene group, and an unsubstituted C6-C26 arylene group; in Formula II, R 9 and R 12 are each independently selected from hydrogen atom, halogen atom, trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2 -C12 alkenylene group, and an unsubstituted C6-C26 arylene group, R 7 -R 8 and R 10 -R 11 are each independently selected from trialkylsilyl, an unsubstituted C1-C12 alkylene group, an unsubstituted C2-C12 alkenylene group, and an unsubstituted C6-C26 arylene group.
Forging press with a forging press frame, with an upper die and a lower die as well as a primary drive that acts with respect to the forging press frame for applying primary forming forces to a workpiece between the upper die and the lower die as well as with a secondary drive for applying secondary forming forces to the workpiece, wherein the secondary drive is supported on an assembly subjected to primary forming forces by the primary drive in the direction of the workpiece, and wherein the secondary drive is supported on a moving crosshead driven by the primary drive or on a crosshead which interacts with the primary drive via tie rods, characterized in that the forging press comprises fixing means for selectively fixing the assembly with respect to the forging press frame and a secondary die driven by the secondary drive and an auxiliary die, and in that the secondary die and the auxiliary die together form the lower die or the upper die and in that, during the secondary movement of the secondary die, only the secondary die is movable while, during the primary movement, the secondary die and the auxiliary die are movable together, wherein (i) the primary drive can be used as a forging drive and the secondary drive can be used as a finishing drive and/or wherein (ii) the mass moved by the secondary drive is smaller than the mass moved by the primary drive and/or the forming forces that can be applied via the secondary drive are smaller than the forming forces that can be applied via the primary drive.
A method for transmitting a signal, comprising: determining, by a terminal device, first indication information, wherein the first indication information is used for indicating an association relationship between a first uplink transmission opportunity used for uplink transmission and a first downlink transmission opportunity used for downlink transmission, wherein the association relationship is used by a network device to determine channel access type of the downlink transmission; and sending, by the terminal device, the first indication information to a network device in a time unit corresponding to the first uplink transmission opportunity. determining, by a terminal device, first indication information, wherein the first indication information is used for indicating an association relationship between a first uplink transmission opportunity used for uplink transmission and a first downlink transmission opportunity used for downlink transmission, wherein the association relationship is used by a network device to determine channel access type of the downlink transmission; and sending, by the terminal device, the first indication information to a network device in a time unit corresponding to the first uplink transmission opportunity.
An apparatus for use with enteral feeding, comprising: an elongated body having a length configured for insertion into a stomach, wherein the elongated body defines at least one lumen through the length; at least one pair of electrodes (910,912) located along the length of the elongated body and positionable for placement within the stomach; a controller in electrical communication with the at least one pair of electrodes (910, 912), wherein the controller further comprises a display configured to display live gastric residual volume data over a period of time, wherein the controller is configured to measure a change in the conductivity or impedance between the pair of electrodes (910,912) over the period of time when an additive element which is configured to alter the conductivity or impedance measured between the pair of electrodes (910,912) is introduced through the at least one lumen, and wherein the controller is configured to determine the GRV of the stomach based on the measured change in conductivity or impedance. an elongated body having a length configured for insertion into a stomach, wherein the elongated body defines at least one lumen through the length; at least one pair of electrodes (910,912) located along the length of the elongated body and positionable for placement within the stomach; a controller in electrical communication with the at least one pair of electrodes (910, 912), wherein the controller further comprises a display configured to display live gastric residual volume data over a period of time, wherein the controller is configured to measure a change in the conductivity or impedance between the pair of electrodes (910,912) over the period of time when an additive element which is configured to alter the conductivity or impedance measured between the pair of electrodes (910,912) is introduced through the at least one lumen, and wherein the controller is configured to determine the GRV of the stomach based on the measured change in conductivity or impedance.