mhurhangee/ep-ind-claims huggingface dataset:
A pump comprising: a pump housing having a pump chamber; an inlet and an outlet in communication with the pump chamber; a motor comprising a stator and a rotor rotatable relative to the stator, the stator comprising a stator core and stator windings wound around the stator core and powered by an AC power supply; an impeller disposed in the pump chamber and fixedly connected to a shaft of the rotor so as to always synchronously rotate along with the shaft; and a circuit board having a drive circuit which energizes the stator windings in a predetermined manner to ensure that the stator windings drag the rotor to rotate only in a fixed starting direction during a starting phase of the synchronous motor, the drive circuit comprising a controllable bidirectional AC switch, an AC-DC conversion circuit, a position sensor for detecting the magnetic pole position of the rotor, and a switch control circuit configured to control the controllable bidirectional AC switch to be switched between a switch-on state and a switch-off state in a preset way, based on the magnetic pole position and polarity information of the AC power supply; characterized in that the controllable bidirectional AC switch is connected in parallel with the stator windings and an AC power supply connected in series between two nodes (A, B), and the AC-DC conversion circuit connected in parallel with the controllable bidirectional AC switch. a pump housing having a pump chamber; an inlet and an outlet in communication with the pump chamber; a motor comprising a stator and a rotor rotatable relative to the stator, the stator comprising a stator core and stator windings wound around the stator core and powered by an AC power supply; an impeller disposed in the pump chamber and fixedly connected to a shaft of the rotor so as to always synchronously rotate along with the shaft; and a circuit board having a drive circuit which energizes the stator windings in a predetermined manner to ensure that the stator windings drag the rotor to rotate only in a fixed starting direction during a starting phase of the synchronous motor, the drive circuit comprising a controllable bidirectional AC switch, an AC-DC conversion circuit, a position sensor for detecting the magnetic pole position of the rotor, and a switch control circuit configured to control the controllable bidirectional AC switch to be switched between a switch-on state and a switch-off state in a preset way, based on the magnetic pole position and polarity information of the AC power supply; characterized in that the controllable bidirectional AC switch is connected in parallel with the stator windings and an AC power supply connected in series between two nodes (A, B), and the AC-DC conversion circuit connected in parallel with the controllable bidirectional AC switch.
A culinary container storage system comprising: at least two storage devices each of the at least two storage devices reversibly attachable, each of the at least two storage devices comprising: a bottom wall; a rear wall attached to the bottom wall; a first wall attached to both the bottom wall and the rear wall; a second wall attached to both the bottom wall and the rear wall; a divider attached to both the bottom wall and the rear wall, the divider disposed between the first wall and the second wall, wherein the divider is shorter and less deep than the first wall, the second wall, and wherein the divider is shorter than the rear wall; a first pocket disposed between the first wall and the divider, the first pocket bound by at least the first wall, the rear wall, the bottom wall, and the divider, a second pocket disposed between the second wall and the divider, the second pocket bound by at least the second wall, the rear wall, the bottom wall and the divider; one or more magnet wells disposed within the first wall and the second wall; and one or more magnets disposed within the one or more magnet wells of the first wall and the second wall. a bottom wall; a rear wall attached to the bottom wall; a first wall attached to both the bottom wall and the rear wall; a second wall attached to both the bottom wall and the rear wall; a divider attached to both the bottom wall and the rear wall, the divider disposed between the first wall and the second wall, wherein the divider is shorter and less deep than the first wall, the second wall, and wherein the divider is shorter than the rear wall; wherein the divider is shorter and less deep than the first wall, the second wall, and wherein the divider is shorter than the rear wall; a first pocket disposed between the first wall and the divider, the first pocket bound by at least the first wall, the rear wall, the bottom wall, and the divider, a second pocket disposed between the second wall and the divider, the second pocket bound by at least the second wall, the rear wall, the bottom wall and the divider; one or more magnet wells disposed within the first wall and the second wall; and one or more magnets disposed within the one or more magnet wells of the first wall and the second wall.
A method for providing load balancing for control traffic received at a mobility home agent comprising multiple control elements, comprising: receiving a control message intended for the mobility home agent; performing a first load-balancing operation for the control message, wherein the first load-balancing operation is performed using a hardware-based load-balancer module, wherein the first load-balancing operation is performed using at least one load-balancing metric; when the first load-balancing operation results in selection of one of the control elements, propagating the control message toward the selected one of the control elements; and when the first load-balancing operation results in selection of fewer or more than one of the control elements, propagating the control message toward a software-based load-balancer module, wherein the software-based load-balancer module is configured for performing a second load-balancing operation for the control message using at least one load-balancing metric for selecting one of the control elements and is configured for propagating the control message toward the selected one of the control elements. receiving a control message intended for the mobility home agent; performing a first load-balancing operation for the control message, wherein the first load-balancing operation is performed using a hardware-based load-balancer module, wherein the first load-balancing operation is performed using at least one load-balancing metric; when the first load-balancing operation results in selection of one of the control elements, propagating the control message toward the selected one of the control elements; and when the first load-balancing operation results in selection of fewer or more than one of the control elements, propagating the control message toward a software-based load-balancer module, wherein the software-based load-balancer module is configured for performing a second load-balancing operation for the control message using at least one load-balancing metric for selecting one of the control elements and is configured for propagating the control message toward the selected one of the control elements.
A generator for use in an airplane, the generator comprising: a terminal block; a feeder lug in electrical communication with the terminal block; and a heat sink surrounding and in thermal communication with the feeder lug; an outer housing including one or more recesses formed therein adapted to receive the feeder lug, characterized in that the heatsink includes a first portion and a second portion, the first portion including the one or more recesses and the second portion being configured to mate with the first portion such that the first and second portion surround the feeder lug. a terminal block; a feeder lug in electrical communication with the terminal block; and a heat sink surrounding and in thermal communication with the feeder lug; an outer housing including one or more recesses formed therein adapted to receive the feeder lug, characterized in that the heatsink includes a first portion and a second portion, the first portion including the one or more recesses and the second portion being configured to mate with the first portion such that the first and second portion surround the feeder lug.
A system for increasing efficiency of a gas turbine engine comprising: a stator assembly including at least one stator airfoil; a rotor assembly including at least one rotor airfoil configured to rotate about an axis; and an actuator coupled to the stator assembly and configured to actuate the stator assembly in an axial direction relative to the rotor assembly, creating an axial movement such that a clearance between the at least one rotor airfoil and the stator assembly varies based on an axial position of the stator assembly. a case configured to remain stationary relative to rotation of the rotor assembly and the axial movement of the stator assembly; characterised by a linear guide rail coupled to the stator assembly and a carriage coupled to the case and slidably coupled to the linear guide rail such that the linear guide rail and the carriage allow the axial movement of the stator assembly and resist radial movement of the stator assembly. a stator assembly including at least one stator airfoil; a rotor assembly including at least one rotor airfoil configured to rotate about an axis; and an actuator coupled to the stator assembly and configured to actuate the stator assembly in an axial direction relative to the rotor assembly, creating an axial movement such that a clearance between the at least one rotor airfoil and the stator assembly varies based on an axial position of the stator assembly. a case configured to remain stationary relative to rotation of the rotor assembly and the axial movement of the stator assembly; characterised by a linear guide rail coupled to the stator assembly and a carriage coupled to the case and slidably coupled to the linear guide rail such that the linear guide rail and the carriage allow the axial movement of the stator assembly and resist radial movement of the stator assembly.
A magnetic element comprising a coil; and a magnetic body (2, 3) which allows a magnetic flux generated by said coil to pass therethrough, said coil being disposed inside said magnetic body (2, 3) and enclosed in said magnetic body (2, 3), wherein said magnetic body (2, 3) comprises a compression molded magnetic body disposed at a portion generating iron loss-caused heat to a high extent or a portion inferior in heat dissipation performance; and an injection molded magnetic body disposed at a portion other than said portion where said compression molded magnetic body is disposed; and said compression molded magnetic body and said injection molded magnetic body are combined with each other, wherein said compression molded magnetic body is columnar; said compression molded magnetic body is disposed at an inside diameter side of said coil; said injection molded magnetic body is disposed at an outside diameter side of said coil; said coil is formed by winding a winding around a circumference of said compression molded magnetic body; and both end surfaces of the column which is said compression molded magnetic body are exposed to a surface of said magnetic element.
A method for assessing the predisposition of a subject to maintenance of weight loss following one or more dietary interventions, which method comprises determining the nucleotide in a sample from the subject at one or more polymorphic positions selected from: (i) position 101 of SEQ ID NO:1 (ii) position 101 of SEQ ID NO:2 (iii) position 101 of SEQ ID NO:3 wherein the method comprises determining the presence of A or G at position 101 of SEQ ID NO:1, and/or A or G at position 101 of SEQ ID NO:2, and/or A or G at position 101 of SEQ ID NO:3. (i) position 101 of SEQ ID NO:1 (ii) position 101 of SEQ ID NO:2 (iii) position 101 of SEQ ID NO:3
An optical encoder (100, 400), comprising: a light focusing element (130, 430); a light detector (150, 450) adapted to receive light from a substrate (110, 410) containing position markings via the light focusing element (130, 430) and to converts the received light into at least one electrical signal; a servomechanism (120, 420) that adjusts a position of the light focusing element (130, 430) based on the at least one electrical signal; and a processor receiving the at least one electrical signal and adapted to report motion of the substrate (110, 410) based on the received at least one electrical signal; the optical encoder (100, 400) further comprising: an optical element (160, 460) that splits light originating at a light source into at least a central beam and two flanking beams, and wherein electrical representations of reflection of the flanking beams from the substrate (110, 410) are used to determine the reported motion; wherein the motion is an angular or linear distance traveled by the substrate; the optical encoder (100, 400) being further characterized in that: the light focusing element (130, 430) is moveable by the servomechanism (120, 420) laterally with respect to the substrate (110, 410). a light focusing element (130, 430); a light detector (150, 450) adapted to receive light from a substrate (110, 410) containing position markings via the light focusing element (130, 430) and to converts the received light into at least one electrical signal; a servomechanism (120, 420) that adjusts a position of the light focusing element (130, 430) based on the at least one electrical signal; and a processor receiving the at least one electrical signal and adapted to report motion of the substrate (110, 410) based on the received at least one electrical signal; the optical encoder (100, 400) further comprising: an optical element (160, 460) that splits light originating at a light source into at least a central beam and two flanking beams, and wherein electrical representations of reflection of the flanking beams from the substrate (110, 410) are used to determine the reported motion; wherein the motion is an angular or linear distance traveled by the substrate; the optical encoder (100, 400) being further characterized in that: the light focusing element (130, 430) is moveable by the servomechanism (120, 420) laterally with respect to the substrate (110, 410). an optical element (160, 460) that splits light originating at a light source into at least a central beam and two flanking beams, and wherein electrical representations of reflection of the flanking beams from the substrate (110, 410) are used to determine the reported motion; wherein the motion is an angular or linear distance traveled by the substrate; the optical encoder (100, 400) being further characterized in that: the light focusing element (130, 430) is moveable by the servomechanism (120, 420) laterally with respect to the substrate (110, 410).
A method of removing a work-affected layer, the method comprising: a step of dipping a TiAl-based alloy, having a work-affected layer formed on a surface thereof by machining, in an etchant comprising predetermined concentrations of hydrofluoric acid and nitric acid, wherein (i) the work-affected layer has a thickness in the range of from 5 μm to 20 μm, (ii) within the etchant, the concentration of the hydrofluoric acid is not less than 5 g/L and not more than 56 g/L, and the concentration of the nitric acid is selected from within a range from not less than 50 g/L to not more than 260 g/L in accordance with a combination of a concentration of the hydrofluoric acid within the etchant and an etching treatment temperature, (iii) the temperature of the etchant is within a range of from 20°C to 40°C, (iv) the etching rate is within a range of from 1 μm/minute to 15 μm/minute, and (v) the etching time is within a range of from 10 minutes to 30 minutes. a step of dipping a TiAl-based alloy, having a work-affected layer formed on a surface thereof by machining, in an etchant comprising predetermined concentrations of hydrofluoric acid and nitric acid, wherein (i) the work-affected layer has a thickness in the range of from 5 μm to 20 μm, (ii) within the etchant, the concentration of the hydrofluoric acid is not less than 5 g/L and not more than 56 g/L, and the concentration of the nitric acid is selected from within a range from not less than 50 g/L to not more than 260 g/L in accordance with a combination of a concentration of the hydrofluoric acid within the etchant and an etching treatment temperature, (iii) the temperature of the etchant is within a range of from 20°C to 40°C, (iv) the etching rate is within a range of from 1 μm/minute to 15 μm/minute, and (v) the etching time is within a range of from 10 minutes to 30 minutes. (i) the work-affected layer has a thickness in the range of from 5 μm to 20 μm, (ii) within the etchant, the concentration of the hydrofluoric acid is not less than 5 g/L and not more than 56 g/L, and the concentration of the nitric acid is selected from within a range from not less than 50 g/L to not more than 260 g/L in accordance with a combination of a concentration of the hydrofluoric acid within the etchant and an etching treatment temperature, (iii) the temperature of the etchant is within a range of from 20°C to 40°C, (iv) the etching rate is within a range of from 1 μm/minute to 15 μm/minute, and (v) the etching time is within a range of from 10 minutes to 30 minutes.
Method for operating a motor vehicle speed sensor device having a sensor unit and an evaluation unit, in each of which an identification feature of the sensor unit is stored, wherein - a physical variable is recorded by the sensor unit and a measurement signal is generated as a function of the physical variable, - a test value is generated by the sensor unit at least as a function of the measurement signal and the identification feature of the sensor unit in a predetermined security method, - a message comprising the measurement signal and the test value is transmitted from the sensor unit to the evaluation unit, - the test value is checked by the evaluation unit in a predetermined test method at least as a function of the measurement signal and the identification feature of the sensor unit, and - the measurement signal is released by the evaluation unit when a test method is successfully completed, wherein - the test value is generated in the predetermined security method as a function of a counter value of the message, and - the test value is checked in the predetermined security method as a function of the counter value of the message. - a physical variable is recorded by the sensor unit and a measurement signal is generated as a function of the physical variable, - a test value is generated by the sensor unit at least as a function of the measurement signal and the identification feature of the sensor unit in a predetermined security method, - a message comprising the measurement signal and the test value is transmitted from the sensor unit to the evaluation unit, - the test value is checked by the evaluation unit in a predetermined test method at least as a function of the measurement signal and the identification feature of the sensor unit, and - the measurement signal is released by the evaluation unit when a test method is successfully completed, wherein - the test value is generated in the predetermined security method as a function of a counter value of the message, and - the test value is checked in the predetermined security method as a function of the counter value of the message.
A sensor system comprising: an insert member configured to be inserted into a foot-receiving chamber of an article of footwear below a foot of a user, the insert having a forefoot portion configured to be positioned under a forefoot of the user's foot, a midfoot portion configured to be positioned under a midfoot of the user's foot, and a heel portion extending rearwardly from the midfoot portion and configured to be positioned under the user's heel; a port connected to the insert and configured for communication with an electronic module; a plurality of sensors formed on the insert member, each sensor configured for detecting pressure applied to the sensor by the user's foot, wherein the plurality of sensors includes first and second sensors (16b, 16c) located on the forefoot portion of the insert and a third sensor located on the heel portion of the insert; and a housing connected to the insert and configured to hold the electronic module, the insert having a hole in the midfoot portion configured to receive the housing, characterized in that the insert includes a first cut-out on a medial edge of the insert member and a second cut-out on a lateral edge of the insert member, proximate a juncture between the forefoot portion and the midfoot portion, wherein a width of the insert defined between the medial and lateral edges (85, 86) is larger in the midfoot portion than the width measured between the first and second cut-outs (85A, 86A) and the width measured at the heel portion, and in that the hole makes up less than half the width of the midfoot portion. an insert member configured to be inserted into a foot-receiving chamber of an article of footwear below a foot of a user, the insert having a forefoot portion configured to be positioned under a forefoot of the user's foot, a midfoot portion configured to be positioned under a midfoot of the user's foot, and a heel portion extending rearwardly from the midfoot portion and configured to be positioned under the user's heel; a port connected to the insert and configured for communication with an electronic module; a plurality of sensors formed on the insert member, each sensor configured for detecting pressure applied to the sensor by the user's foot, wherein the plurality of sensors includes first and second sensors (16b, 16c) located on the forefoot portion of the insert and a third sensor located on the heel portion of the insert; and a housing connected to the insert and configured to hold the electronic module, the insert having a hole in the midfoot portion configured to receive the housing, characterized in that the insert includes a first cut-out on a medial edge of the insert member and a second cut-out on a lateral edge of the insert member, proximate a juncture between the forefoot portion and the midfoot portion, wherein a width of the insert defined between the medial and lateral edges (85, 86) is larger in the midfoot portion than the width measured between the first and second cut-outs (85A, 86A) and the width measured at the heel portion, and in that the hole makes up less than half the width of the midfoot portion.
A printer (1, 1B, 1C, 1D) comprising: a body case (2, 2B, 2C, 2D) that includes a placement surface for the printer and an accommodating chamber for accommodating a roll body into which a belt-shaped print medium are wound; a printer cover (3, 3B, 3C, 3D) configured to open and close the accommodating chamber; a platen roller that is attached to the printer cover (3, 3B, 3C, 3D) and configured to convey the belt-shaped print medium drawn out of the roll body; and a hinge (8, 10B, 10C, 10D) that includes a hinge shaft and is configured to couple the printer cover (3, 3B, 3C, 3D) with the body case (2, 2B, 2C, 2D) so that the printer cover (3, 3B, 3C, 3D) is swingable about the hinge shaft relative to the body case (2, 2B, 2C, 2D), wherein the printer cover (3, 3B, 3C, 3D) comprises an upper surface portion and an inclined surface portion, the inclined surface portion being provided between the hinge shaft and the upper surface portion and inclined relative to the placement surface, and H1 < H2 is established where H1 is defined as a height from the placement surface to the hinge shaft and H2 is defined as a height from the placement surface to a highest position from the hinge shaft to the upper surface portion, characterized in that the body case covers a lower half of the roller body accommodating chamber on the right and left side and from behind.