mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a plurality of pixel areas disposed on a lower substrate, each pixel area including a plurality of sub-pixel areas (BSP, RSP, GSP) for displaying images; a plurality of light emitting structures (140B, 140R, 140G) disposed respectively in the sub-pixel areas (BSP, RSP, GSP) of each pixel area, and configured to output at least one color light; a plurality of color filters (170B, 170R, 170G) disposed correspondingly to the light emitting structures (140B, 140R, 140G), and configured to convert the at least one color light output from the light emitting structures (140B, 140R, 140G) into different color lights; a white light emitting structure configured to output white color light; an upper substrate; a pixel protection layer disposed on the white light emitting structure; and an adhesive layer for attaching the upper substrate to the pixel protection layer, wherein the white light emitting structure covers all the light emitting structures (140B, 140R, 140G) and the color filters (170B, 170R, 170G). a plurality of pixel areas disposed on a lower substrate, each pixel area including a plurality of sub-pixel areas (BSP, RSP, GSP) for displaying images; a plurality of light emitting structures (140B, 140R, 140G) disposed respectively in the sub-pixel areas (BSP, RSP, GSP) of each pixel area, and configured to output at least one color light; a plurality of color filters (170B, 170R, 170G) disposed correspondingly to the light emitting structures (140B, 140R, 140G), and configured to convert the at least one color light output from the light emitting structures (140B, 140R, 140G) into different color lights; a white light emitting structure configured to output white color light; an upper substrate; a pixel protection layer disposed on the white light emitting structure; and an adhesive layer for attaching the upper substrate to the pixel protection layer, wherein the white light emitting structure covers all the light emitting structures (140B, 140R, 140G) and the color filters (170B, 170R, 170G).
Sliding guide shoe for an elevator for conveying people or goods, comprising a guide shoe housing and a sliding element, the sliding element, when the sliding guide shoe is mounted in the elevator, comprising an upper end and a lower end, at least one of the upper and lower ends (20, 21) and preferably each of the upper and lower ends (20, 21) in each case having a non-horizontal profile along the corresponding end, characterized in that the sliding element is shaped such that the unfolded form thereof, and in particular when the foldable sliding element is spread out or placed on a plane, has a diamond-shaped outer contour.
A piezoelectric/electrostrictive element comprising, a substrate containing ceramic as a main component, the substrate having a main surface; an adhesive layer formed on the main surface of the substrate, the adhesive layer containing a metal oxide as a main component; a first conductive layer formed on the adhesive layer; and a second conductive layer disposed opposite to the first conductive layer with the substrate located in-between characterized by an anchor portion formed on the adhesive layer, the anchor portion embedded in the first conductive layer, the anchor portion containing glass as a main component.
A blind fastener which can be installed into a workpiece with access to only one side of the workpiece, comprising: a head; a shaft with a tail; a tail of the blind fastener comprising the tail of the shaft and a sleeve surrounding the tail of the shaft; and a barrier secured to the tail of the blind fastener, wherein the sleeve is configured to expand away from the tail of the shaft to form an expanded sleeve which is forced against a face of a workpiece to clamp the workpiece between the head and the expanded sleeve, the expanded sleeve comprising a folded bulb or flange, and wherein the barrier is configured to be forced against the face of the workpiece to form a sealed cover around the tail of the blind fastener. wherein the sleeve is configured to expand away from the tail of the shaft to form an expanded sleeve which is forced against a face of a workpiece to clamp the workpiece between the head and the expanded sleeve, the expanded sleeve comprising a folded bulb or flange, and wherein the barrier is configured to be forced against the face of the workpiece to form a sealed cover around the tail of the blind fastener.
An unmanned aerial vehicle comprising a fuselage, a deployment mechanism supported by said fuselage, and a folding airfoil-shaped body attached to said deployment mechanism, wherein said deployment mechanism comprises first and second links which are pivotably coupled to each other, said folding airfoil-shaped body being in a stowed position when said first and second links are not aligned with each other and said folding airfoil-shaped body being in a deployed position when said first and second links are aligned with each other; said unmanned aerial vehicle further comprising a third link that is attached to said fuselage and pivotably coupled to said first link, and a fourth link (22, 26) pivotably coupled to said second and third links; wherein the point where said first and second links are pivotably coupled is disposed between the point where said first and third links are pivotably coupled and the point where said second and fourth links (22, 26) are pivotably coupled when said first and second links are aligned.
Method for the production of nitrogen monoxide comprising the following steps: (a) Providing a carrier medium comprising at least one pH-labile NO-donor; (b) setting the pH value of the carrier medium to a pH value that induces the decomposition of the at least one pH-labile NO-donor in association with the production of NO; (c) maintaining a pH value that induces the NO-production for a period of time ranging from 15 seconds to 60 minutes that permits the production of 0.01 to 2 mM NO; (d) increasing the pH value of the carrier medium by at least one pH level; (e) as an option, adding at least one additional antioxidant; whereby the carrier medium in step (a) contains, in addition, at least one antioxidant or the at least one antioxidant is added in step (b). (a) Providing a carrier medium comprising at least one pH-labile NO-donor; (b) setting the pH value of the carrier medium to a pH value that induces the decomposition of the at least one pH-labile NO-donor in association with the production of NO; (c) maintaining a pH value that induces the NO-production for a period of time ranging from 15 seconds to 60 minutes that permits the production of 0.01 to 2 mM NO; (d) increasing the pH value of the carrier medium by at least one pH level; (e) as an option, adding at least one additional antioxidant;
Electromagnetic actuator with a processing unit intended to act on control means generating an amplitude-modulated control voltage (U pwm) of PWM type, the actuator comprising: - at least one actuator coil connected to the control means; - means for measuring the electric current flowing through the actuator coil; - differentiating means computing the value of the derivative (di/dt) of the electric current; characterized in that the processing unit includes: - first means for storing a first value of the derivative (di 1 /dt on) of the electric current for a time period (t on) in which voltage is supplied to the actuator coil; - second means for storing a second value of the derivative (di 2 /dt off) of the electric current for a time period (t off) in which voltage is not supplied to said coil; - computing means for determining in succession: - a first computational coefficient depending on the bus power supply voltage (U bus) and the first and second values of the derivatives (di 1 /dt on, di 2 /dt off) of the electric current; - an operating position (x) of the electromagnetic actuator on the basis of a first correlation between the operating position (x), the first computational coefficient and the value of the electric current. - at least one actuator coil connected to the control means; - means for measuring the electric current flowing through the actuator coil; - differentiating means computing the value of the derivative (di/dt) of the electric current; - first means for storing a first value of the derivative (di 1 /dt on) of the electric current for a time period (t on) in which voltage is supplied to the actuator coil; - second means for storing a second value of the derivative (di 2 /dt off) of the electric current for a time period (t off) in which voltage is not supplied to said coil; - computing means for determining in succession: - a first computational coefficient depending on the bus power supply voltage (U bus) and the first and second values of the derivatives (di 1 /dt on, di 2 /dt off) of the electric current; - an operating position (x) of the electromagnetic actuator on the basis of a first correlation between the operating position (x), the first computational coefficient and the value of the electric current. - a first computational coefficient depending on the bus power supply voltage (U bus) and the first and second values of the derivatives (di 1 /dt on, di 2 /dt off) of the electric current; - an operating position (x) of the electromagnetic actuator on the basis of a first correlation between the operating position (x), the first computational coefficient and the value of the electric current.
A combustible heat source for a smoking article having a barrier affixed to an end face thereof, wherein a thermally-activated adhesive is provided between the end face of the combustible heat source and the barrier.
An Fe-based shape memory alloy comprising 25-42 atomic % of Mn, 12-18 atomic % of Al, and 5-12 atomic % of Ni, the balance being Fe and inevitable impurities.
Scaling training tool, especially for training the usage of an ultrasonic scaler for removing calculus, comprising a main body, wherein the main body extends along a center axis and comprises an outer surface, wherein the outer surface is at least partly coated with a coating, and wherein the outer surface is shaped, preferably convexly shaped, cheracterized in that the main body is a hollow tube and wherein the main body comprises glass. a main body, wherein the main body extends along a center axis and comprises an outer surface, wherein the outer surface is at least partly coated with a coating, and wherein the outer surface is shaped, preferably convexly shaped, cheracterized in that the main body is a hollow tube and wherein the main body comprises glass.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a chamber for receiving a pressurized fluid, the chamber having a first chamber barrier layer and a second chamber barrier layer bonded to the first chamber barrier layer about peripheral portions of the first chamber barrier layer and the second chamber barrier layer to define an interior void between the first chamber barrier layer and the second chamber barrier layer; a tensile member bonded to, and extending between, the first chamber barrier layer and the second chamber barrier layer; and a bond inhibiting material located between the tensile member and the first chamber barrier layer and extending along a first peripheral edge of the chamber proximate to a medial side of the chamber and along a second peripheral edge of the chamber proximate to a lateral side of the chamber, the tensile member and the first chamber barrier layer being unbonded in an unbonded area in which the bond inhibiting material is disposed; wherein the chamber includes an outwardly extending bulge in the unbonded area, and wherein the bulge extends on both the medial side and the lateral side of the chamber to form a medial bulge and a lateral bulge; and wherein the chamber includes a planar surface extending in a first direction between the bond inhibiting material located proximate to the medial side and the bond inhibiting material located proximate to the lateral side. a chamber for receiving a pressurized fluid, the chamber having a first chamber barrier layer and a second chamber barrier layer bonded to the first chamber barrier layer about peripheral portions of the first chamber barrier layer and the second chamber barrier layer to define an interior void between the first chamber barrier layer and the second chamber barrier layer; a tensile member bonded to, and extending between, the first chamber barrier layer and the second chamber barrier layer; and a bond inhibiting material located between the tensile member and the first chamber barrier layer and extending along a first peripheral edge of the chamber proximate to a medial side of the chamber and along a second peripheral edge of the chamber proximate to a lateral side of the chamber, the tensile member and the first chamber barrier layer being unbonded in an unbonded area in which the bond inhibiting material is disposed; wherein the chamber includes an outwardly extending bulge in the unbonded area, and wherein the bulge extends on both the medial side and the lateral side of the chamber to form a medial bulge and a lateral bulge; and wherein the chamber includes a planar surface extending in a first direction between the bond inhibiting material located proximate to the medial side and the bond inhibiting material located proximate to the lateral side.
A build module (10, 50, 100, 214) comprising: a housing (12, 52, 102, 216); a build material chamber (14, 54, 104, 226, 326) in the housing (12, 52, 102, 216) to hold build material, wherein the build material chamber (14, 54, 104, 226, 326) comprises a support member to hold the build material; and a build chamber (16, 56, 106, 228, 328) in the housing, the build chamber (16, 56, 106, 228, 328) comprising a moveable support member (18, 58, 108, 236, 336) to receive successive layers of the build material from a build material distributor (242, 332, 342, 384); the build module (10, 50, 100, 214) being removably insertable into a receiving volume of an additive manufacturing system to allow the additive manufacturing system to solidify a portion of the successive layers to be received onto the movable support member (18, 58, 108, 236, 336) of the build module (10, 50, 100, 214), characterized in that the build material chamber is beneath the build chamber (16, 56, 106, 228, 328), and wherein the support member is angled to allow build material to slide down by the force of gravity. a housing (12, 52, 102, 216); a build material chamber (14, 54, 104, 226, 326) in the housing (12, 52, 102, 216) to hold build material, wherein the build material chamber (14, 54, 104, 226, 326) comprises a support member to hold the build material; and a build chamber (16, 56, 106, 228, 328) in the housing, the build chamber (16, 56, 106, 228, 328) comprising a moveable support member (18, 58, 108, 236, 336) to receive successive layers of the build material from a build material distributor (242, 332, 342, 384); the build module (10, 50, 100, 214) being removably insertable into a receiving volume of an additive manufacturing system to allow the additive manufacturing system to solidify a portion of the successive layers to be received onto the movable support member (18, 58, 108, 236, 336) of the build module (10, 50, 100, 214), characterized in that the build material chamber is beneath the build chamber (16, 56, 106, 228, 328), and wherein the support member is angled to allow build material to slide down by the force of gravity.
A speed controller of a magnetic motor for: calculating d-axis and q-axis commanded voltage values, the d-axis and the q-axis corresponding respectively to a magnetic flux axis and a torque axis, and the d-axis and q-axis commanded voltage values being calculated based on d-axis and q-axis commanded current values, d-axis and q-axis detected current values and a detected speed value, the d-axis commanded current value set to zero and the q-axis commanded current value calculated from a deviation of a commanded speed value from the detected speed value, and controlling an output voltage value from a power converter for driving the magnetic motor in accordance with the calculated d-axis and q-axis commanded voltage values, characterized in that the speed controller is limiting a speed control input with respect to the speed deviation value(Δω), a calculated voltage phase (δ) and a signal (δlmt) indicating a value of the voltage phase during a critical torque, to prevent the q-axis commanded current value from diverging or increasing to an upper limit value if a commanded torque value to request a greater torque than a maximum torque is requested, the commanded torque value corresponding to the q-axis commanded current value and the maximum torque which corresponds to the maximum detected q-axis current and can be outputted by the magnetic motor. calculating d-axis and q-axis commanded voltage values, the d-axis and the q-axis corresponding respectively to a magnetic flux axis and a torque axis, and the d-axis and q-axis commanded voltage values being calculated based on d-axis and q-axis commanded current values, d-axis and q-axis detected current values and a detected speed value, the d-axis commanded current value set to zero and the q-axis commanded current value calculated from a deviation of a commanded speed value from the detected speed value, and controlling an output voltage value from a power converter for driving the magnetic motor in accordance with the calculated d-axis and q-axis commanded voltage values, characterized in that the speed controller is limiting a speed control input with respect to the speed deviation value(Δω), a calculated voltage phase (δ) and a signal (δlmt) indicating a value of the voltage phase during a critical torque, to prevent the q-axis commanded current value from diverging or increasing to an upper limit value if a commanded torque value to request a greater torque than a maximum torque is requested, the commanded torque value corresponding to the q-axis commanded current value and the maximum torque which corresponds to the maximum detected q-axis current and can be outputted by the magnetic motor.
A fluid spraying facility comprising a fluid circulation pipe and a scraper that can circulate in the pipe, the scraper being configured to push back in front of it fluid present in the pipe when the scraper circulates in the pipe, the pipe and the scraper each having a circular section, the pipe having an inner diameter (Di), the scraper having an outer diameter, the outer diameter having a first value, wherein a difference between the inner diameter (Di) of the pipe and the first value of the outer diameter of the scraper is greater than or equal to 100 micrometers, preferably greater than or equal to 200 micrometers. the facility comprising a holding system capable of preventing a relative translational movement of the scraper with respect to the pipe when the scraper is inserted in the pipe, the pipe extending along a first axis, the scraper extending along a second axis and being configured to circulate in translation relative to the pipe along the first axis when the first axis and the second axis are merged, the holding system being configured to rotate the scraper around an axis (Ap) perpendicular to the first axis such that an angle (α) between the first axis and the second axis is strictly greater than zero, preferably greater than or equal to 0.5 degrees. wherein a difference between the inner diameter (Di) of the pipe and the first value of the outer diameter of the scraper is greater than or equal to 100 micrometers, preferably greater than or equal to 200 micrometers. the facility comprising a holding system capable of preventing a relative translational movement of the scraper with respect to the pipe when the scraper is inserted in the pipe, the pipe extending along a first axis, the scraper extending along a second axis and being configured to circulate in translation relative to the pipe along the first axis when the first axis and the second axis are merged, the holding system being configured to rotate the scraper around an axis (Ap) perpendicular to the first axis such that an angle (α) between the first axis and the second axis is strictly greater than zero, preferably greater than or equal to 0.5 degrees.
A gyroscope comprising: an optical ring resonator configured to allow light to resonate therein; at least one light source, wherein the light from the at least one light source is controlled to form a plurality of optical fields, wherein each field in the plurality of fields is phase or frequency modulated at a common modulation frequency and each field in the plurality of fields is at a different frequency; a plurality of heterodyne modulators (114, 120, 128), wherein each heterodyne modulator in the plurality of heterodyne modulators (114, 120, 128) phase or frequency modulates a respective field in the plurality of fields at a respective heterodyne frequency to form a plurality of sidebands, wherein the corresponding heterodyne frequency is different for each heterodyne modulator in the plurality of heterodyne modulators (114, 120, 128); at least one coupler (470, 474) configured to couple the pluralities of sidebands into the optical ring resonator; a feedback control coupled to the ring resonator, wherein the feedback control is configured to detect the pluralities of sidebands transmitted out of the resonator to create a plurality of detected sideband signals and adjust frequencies of the plurality of fields based on the plurality of detected sideband signals; characterized in that the corresponding heterodyne frequencies and the different frequencies of the plurality of fields are selected such that both first order harmonic sidebands in at least one of the pluralities of sidebands are located at different resonance frequencies for the optical ring resonator, wherein a field in the plurality of fields is located at half of a free spectral range from a resonance frequency of the optical ring resonator and the respective heterodyne frequency is substantially equal to an odd multiple of a half free spectral range. an optical ring resonator configured to allow light to resonate therein; at least one light source, wherein the light from the at least one light source is controlled to form a plurality of optical fields, wherein each field in the plurality of fields is phase or frequency modulated at a common modulation frequency and each field in the plurality of fields is at a different frequency; a plurality of heterodyne modulators (114, 120, 128), wherein each heterodyne modulator in the plurality of heterodyne modulators (114, 120, 128) phase or frequency modulates a respective field in the plurality of fields at a respective heterodyne frequency to form a plurality of sidebands, wherein the corresponding heterodyne frequency is different for each heterodyne modulator in the plurality of heterodyne modulators (114, 120, 128); at least one coupler (470, 474) configured to couple the pluralities of sidebands into the optical ring resonator; a feedback control coupled to the ring resonator, wherein the feedback control is configured to detect the pluralities of sidebands transmitted out of the resonator to create a plurality of detected sideband signals and adjust frequencies of the plurality of fields based on the plurality of detected sideband signals;