mhurhangee/ep-ind-claims huggingface dataset:
A method of making a braided upper for an article of footwear, comprising: associating a midsole structure (120, 520) with a lower surface of a last, wherein a forefoot portion of the last has a cross-sectional area and a peripheral contour that bounds the cross-sectional area, and the last and midsole structure (120, 520) provide a combined peripheral contour, wherein a medial side portion of the peripheral contour has a first curvature, and a lateral side portion of the peripheral contour has a second curvature, wherein a medial side portion of the combined peripheral contour has a third curvature and a lateral side portion of the combined peripheral contour has a fourth curvature; and wherein the third curvature is substantially less than the first curvature, and/or wherein the fourth curvature is substantially less than the second curvature; the method further comprising inserting the last and the midsole structure (120, 520) through a braiding device while the midsole structure (120, 520) is associated with the lower surface of the last so as to form a braided structure around the last and the midsole structure (120, 520), wherein the reduced curvature of the third curvature with respect to the first curvature and/or the reduced curvature of the fourth curvature with respect to the second curvature presents a smoother peripheral contour to the braiding device than would be presented by the last alone; and thereby forming the braided upper from the braided structure, wherein the midsole structure (120, 520) is disposed within an interior cavity of the braided upper. associating a midsole structure (120, 520) with a lower surface of a last, wherein a forefoot portion of the last has a cross-sectional area and a peripheral contour that bounds the cross-sectional area, and the last and midsole structure (120, 520) provide a combined peripheral contour, wherein a medial side portion of the peripheral contour has a first curvature, and a lateral side portion of the peripheral contour has a second curvature, wherein a medial side portion of the combined peripheral contour has a third curvature and a lateral side portion of the combined peripheral contour has a fourth curvature; and wherein the third curvature is substantially less than the first curvature, and/or wherein the fourth curvature is substantially less than the second curvature; the method further comprising inserting the last and the midsole structure (120, 520) through a braiding device while the midsole structure (120, 520) is associated with the lower surface of the last so as to form a braided structure around the last and the midsole structure (120, 520), wherein the reduced curvature of the third curvature with respect to the first curvature and/or the reduced curvature of the fourth curvature with respect to the second curvature presents a smoother peripheral contour to the braiding device than would be presented by the last alone; and thereby forming the braided upper from the braided structure, wherein the midsole structure (120, 520) is disposed within an interior cavity of the braided upper.
An integrated non-volatile memory, NVM, system, comprising: an array of non-volatile memory, NVM, cells; bias voltage generator circuitry configured to generate bias voltages for the NVM cells; and controller circuitry configured to obtain operating temperature measurements relating to the NVM system, to determine performance degradation for the NVM system based upon the temperature measurements, and to adjust voltage levels for the bias voltages generated by the bias voltage generator circuitry based upon the performance degradation determination; wherein the controller circuitry is further configured to conduct program and erase operations for the NVM system using the adjusted voltage levels; wherein for a program operation, a voltage level for a gate bias voltage is adjusted higher than a default gate bias voltage level, if an operating temperature measurement is higher than a threshold operating temperature; and wherein for an erase operation, a voltage level for a body bias voltage is adjusted higher than a default body bias voltage level, if an operating temperature measurement is lower than a threshold operating temperature. an array of non-volatile memory, NVM, cells; bias voltage generator circuitry configured to generate bias voltages for the NVM cells; and controller circuitry configured to obtain operating temperature measurements relating to the NVM system, to determine performance degradation for the NVM system based upon the temperature measurements, and to adjust voltage levels for the bias voltages generated by the bias voltage generator circuitry based upon the performance degradation determination; wherein the controller circuitry is further configured to conduct program and erase operations for the NVM system using the adjusted voltage levels; wherein for a program operation, a voltage level for a gate bias voltage is adjusted higher than a default gate bias voltage level, if an operating temperature measurement is higher than a threshold operating temperature; and wherein for an erase operation, a voltage level for a body bias voltage is adjusted higher than a default body bias voltage level, if an operating temperature measurement is lower than a threshold operating temperature.
A robot cleaner configured to perform cleaning and drive automatically, wherein the robot cleaner comprises: a cleaner case that defines an external appearance of the robot cleaner; a suction device provided in the cleaner case; a suction nozzle configured to suck dust on the floor via driving of the suction device; a dust collector configured to collect foreign matters from sucked air, wherein the robot cleaner further comprises recognition means (112, 312, 412) recognizable by a camera of an external device; and a first wireless communications device configured to communicate with the external device, wherein the first wireless communications device of the robot cleaner is configured to receive a control signal from a second wireless communications device of the external device such that the robot cleaner can be driven in accordance with the control signal; wherein the recognition means (112, 312, 412) includes a lighting image generated or removed by selective activation of a light source of the robot cleaner, wherein an outer wall of the cleaner case comprises a color layer in an outer portion of the outer wall and a reflective layer in an inner portion of the outer wall, wherein the light source is provided under the reflective layer, and wherein the reflective layer is arranged to not transmit light from outside the robot cleaner to the inner portion of the outer wall and to transmit the lighting image from the light source through the outer wall. a cleaner case that defines an external appearance of the robot cleaner; a suction device provided in the cleaner case; a suction nozzle configured to suck dust on the floor via driving of the suction device; a dust collector configured to collect foreign matters from sucked air, wherein the robot cleaner further comprises recognition means (112, 312, 412) recognizable by a camera of an external device; and a first wireless communications device configured to communicate with the external device, wherein the first wireless communications device of the robot cleaner is configured to receive a control signal from a second wireless communications device of the external device such that the robot cleaner can be driven in accordance with the control signal; wherein the recognition means (112, 312, 412) includes a lighting image generated or removed by selective activation of a light source of the robot cleaner, wherein an outer wall of the cleaner case comprises a color layer in an outer portion of the outer wall and a reflective layer in an inner portion of the outer wall, wherein the light source is provided under the reflective layer, and wherein the reflective layer is arranged to not transmit light from outside the robot cleaner to the inner portion of the outer wall and to transmit the lighting image from the light source through the outer wall.
An audio device (200,300) adapted to be worn in a piercing in a user's ear, the audio device (200,300) comprising: an elongate body (210,310) having a first end (212, 312) and an opposite second end (214,314), the body (210,310) adapted to be disposed to extend through a piercing in an ear of a user; a control unit (116,216,316) being removeably coupled to the first end of the body (210,310) and including a control-unit housing (118,218,318), the control-unit housing (118,218,318) having dimensions larger than the first end of the body (210,310), and the control-unit housing (118,218,318) including a wireless-communications unit and a battery disposed therein; a sound-production unit (136,236,336) flexibly coupled to the second end (214,314,414) of the body (210,310) by a conductor (138,238,338) and communicatively coupled with the wireless-communications unit, at least a portion of a signal path of communications between the sound-production unit (136,236,336) and the wireless-communications unit tracking the body (210,310), the sound-production unit (136,236,336) having a non-use orientation in which the sound-production unit (136,236,336) is suspended from the second end (214,314) of the body (210,310) and a use orientation in which the sound-production unit (136,236,336) is disposed at least partially within a space in the pinna of the ear defined by the antihelix, concha, and tragus of the ear, and the sound-production unit (136,236,336) is directed toward the ear canal. an elongate body (210,310) having a first end (212, 312) and an opposite second end (214,314), the body (210,310) adapted to be disposed to extend through a piercing in an ear of a user; a control unit (116,216,316) being removeably coupled to the first end of the body (210,310) and including a control-unit housing (118,218,318), the control-unit housing (118,218,318) having dimensions larger than the first end of the body (210,310), and the control-unit housing (118,218,318) including a wireless-communications unit and a battery disposed therein; a sound-production unit (136,236,336) flexibly coupled to the second end (214,314,414) of the body (210,310) by a conductor (138,238,338) and communicatively coupled with the wireless-communications unit, at least a portion of a signal path of communications between the sound-production unit (136,236,336) and the wireless-communications unit tracking the body (210,310), the sound-production unit (136,236,336) having a non-use orientation in which the sound-production unit (136,236,336) is suspended from the second end (214,314) of the body (210,310) and a use orientation in which the sound-production unit (136,236,336) is disposed at least partially within a space in the pinna of the ear defined by the antihelix, concha, and tragus of the ear, and the sound-production unit (136,236,336) is directed toward the ear canal.
A positive electrode for lithium ion secondary cell, comprising: a positive electrode current collector foil; and positive electrode mixture layers laminated on both surfaces of the positive electrode current collector foil, the positive electrode mixture layer including a first positive electrode active material layer, an electrolyte holding layer, and a second positive electrode active material layer, wherein the first positive electrode active material layer, the electrolyte holding layer, and the second positive electrode active material layer contain positive electrode active materials, binders, and conductive agents containing carbonaceous material, wherein a conductive agent ratio of the electrolyte holding layer is higher than conductive agent ratios of the first positive electrode active material layer and the second positive electrode active material layer, and wherein a positive electrode active material ratio and a binder ratio of the electrolyte holding layer are lower than positive electrode active material ratios and binder ratios of the first positive electrode active material layer and the second positive electrode active material layer. a positive electrode current collector foil; and positive electrode mixture layers laminated on both surfaces of the positive electrode current collector foil, the positive electrode mixture layer including a first positive electrode active material layer, an electrolyte holding layer, and a second positive electrode active material layer, wherein the first positive electrode active material layer, the electrolyte holding layer, and the second positive electrode active material layer contain positive electrode active materials, binders, and conductive agents containing carbonaceous material, wherein a conductive agent ratio of the electrolyte holding layer is higher than conductive agent ratios of the first positive electrode active material layer and the second positive electrode active material layer, and wherein a positive electrode active material ratio and a binder ratio of the electrolyte holding layer are lower than positive electrode active material ratios and binder ratios of the first positive electrode active material layer and the second positive electrode active material layer.
Head-up motor-vehicle display comprising: - a screen composed of an array of elements the transmittance of which varies in a controlled manner over time, between a front side and a back side of the screen; - a light source illuminating the front side of the screen with a light beam; and - a rear light pipe arranged facing the back side of the screen, so that a light beam emitted by the screen passes through the rear light pipe; the head-up display comprises a heat collector (38, 38A, 42B) thermally connecting the screen to the rear light pipe, so as to promote heat transfer from the screen to the rear light pipe, and the heat collector comprises an intermediate element interposed between the back side of the screen and the rear light pipe, characterized in that the intermediate element is thermally connected to a thermal radiator extending along the rear light pipe. - a screen composed of an array of elements the transmittance of which varies in a controlled manner over time, between a front side and a back side of the screen; - a light source illuminating the front side of the screen with a light beam; and - a rear light pipe arranged facing the back side of the screen, so that a light beam emitted by the screen passes through the rear light pipe;
Rotating electrical machine, comprising a stator equipped with a yoke and a rotor mounted on a shaft, said rotating electrical machine further comprising a cradle comprising a bearing surface of the stator, a bearing member of the stator comprising a bearing claw, a cover with a form complementing the cradle, the cover closing said cradle and an electronic rectifier module offset radially relative to said yoke, said electronic rectifier module extending in a surface of a cylinder of revolution centred on an axis of the stator parallel to the yoke and located at a radial distance from the axis of the stator greater than that of said yoke and being mounted on the bearing member of the stator or on the cover.
A corrosion rate measurement system, comprising: a sacrificial probe configured to be exposed to a corrosive material; a sensor arranged to detect physical changes in the sacrificial probe due to corrosion of the sacrificial probe from the corrosive material; and measurement circuitry connected to the sensor having an output indicative of a corrosion rate of the sacrificial probe from exposure to the corrosive material; wherein the sacrificial probe comprises a multi-layer structure which causes the sacrificial probe to corrode at a non-linear rate; wherein, starting from the layer directly exposed to the corrosive material, each subsequent layer (150B, 150C, 150D, 150E, 150F) of the multi-layer structure provides greater resistance to corrosion than the layer before. a sacrificial probe configured to be exposed to a corrosive material; a sensor arranged to detect physical changes in the sacrificial probe due to corrosion of the sacrificial probe from the corrosive material; and measurement circuitry connected to the sensor having an output indicative of a corrosion rate of the sacrificial probe from exposure to the corrosive material; wherein the sacrificial probe comprises a multi-layer structure which causes the sacrificial probe to corrode at a non-linear rate; wherein, starting from the layer directly exposed to the corrosive material, each subsequent layer (150B, 150C, 150D, 150E, 150F) of the multi-layer structure provides greater resistance to corrosion than the layer before.
A peritoneal dialysis system (201, 301, 401, 501, 601, 701, 801, 901), comprising: a fluid bag (203, 303, 403, 503, 603, 703, 803, 903) containing a peritoneal dialysis fluid; and a peritoneal dialysis cycler comprising: a receiving compartment (202, 302, 402, 502, 602, 702, 802, 902) having an inner surface defining a cavity, the fluid bag being received in the cavity; anda heater comprising: a first layer of silicon rubber (205, 305, 405, 505, 605, 705, 805, 905) having one or more heating elements embedded therein, wherein the one or more heating elements are uniformly distributed through the first layer of silicon rubber; and a conductive plate (204, 304, 404, 504, 604, 704, 804, 904) positioned on a first side of the first layer of silicon rubber, wherein the area of the conductive plate is substantially similar to the area of the first side of the first layer of silicon rubber, characterised in that the first layer of silicon rubber and the conductive plate line the inner surface of the receiving compartment, whereby the entire receiving compartment can be used to heat the fluid bag placed inside the receiving compartment, and the fluid bag fits entirely within the receiving compartment. a fluid bag (203, 303, 403, 503, 603, 703, 803, 903) containing a peritoneal dialysis fluid; and a peritoneal dialysis cycler comprising: a receiving compartment (202, 302, 402, 502, 602, 702, 802, 902) having an inner surface defining a cavity, the fluid bag being received in the cavity; anda heater comprising: a first layer of silicon rubber (205, 305, 405, 505, 605, 705, 805, 905) having one or more heating elements embedded therein, wherein the one or more heating elements are uniformly distributed through the first layer of silicon rubber; and a conductive plate (204, 304, 404, 504, 604, 704, 804, 904) positioned on a first side of the first layer of silicon rubber, wherein the area of the conductive plate is substantially similar to the area of the first side of the first layer of silicon rubber, characterised in that the first layer of silicon rubber and the conductive plate line the inner surface of the receiving compartment, whereby the entire receiving compartment can be used to heat the fluid bag placed inside the receiving compartment, and the fluid bag fits entirely within the receiving compartment. a first layer of silicon rubber (205, 305, 405, 505, 605, 705, 805, 905) having one or more heating elements embedded therein, wherein the one or more heating elements are uniformly distributed through the first layer of silicon rubber; and a conductive plate (204, 304, 404, 504, 604, 704, 804, 904) positioned on a first side of the first layer of silicon rubber, wherein the area of the conductive plate is substantially similar to the area of the first side of the first layer of silicon rubber, characterised in that the first layer of silicon rubber and the conductive plate line the inner surface of the receiving compartment, whereby the entire receiving compartment can be used to heat the fluid bag placed inside the receiving compartment, and the fluid bag fits entirely within the receiving compartment.
A method of operating an optical system, the method comprising: receiving data from an eye tracker of the optical system, wherein the optical system includes a frame configured to be worn about a head of a user of the optical system and a dimming component carried by the frame and configured to be positioned between an eye of the user and an environment of the user; determining, based on the data received from the eye tracker, a location within the eye of the user at which a center of rotation of the eye of the user is positioned; identifying one or more points in three-dimensional space located within the environment of the user; for each of the one or more identified points within the environment of the user: identifying a set of one or more pixels of the dimming component based at least in part on the determined location of the center of rotation of the eye of the user and the respective point in three-dimensional space located within the environment of the user; and controlling the dimming component to dim the identified set of one or more pixels. receiving data from an eye tracker of the optical system, wherein the optical system includes a frame configured to be worn about a head of a user of the optical system and a dimming component carried by the frame and configured to be positioned between an eye of the user and an environment of the user; determining, based on the data received from the eye tracker, a location within the eye of the user at which a center of rotation of the eye of the user is positioned; identifying one or more points in three-dimensional space located within the environment of the user; for each of the one or more identified points within the environment of the user: identifying a set of one or more pixels of the dimming component based at least in part on the determined location of the center of rotation of the eye of the user and the respective point in three-dimensional space located within the environment of the user; and controlling the dimming component to dim the identified set of one or more pixels. identifying a set of one or more pixels of the dimming component based at least in part on the determined location of the center of rotation of the eye of the user and the respective point in three-dimensional space located within the environment of the user; and controlling the dimming component to dim the identified set of one or more pixels.