mhurhangee/ep-ind-claims huggingface dataset:
A sole structure for an article of footwear, comprising: a first midsole body defining a ground-facing surface and an foot-facing surface opposite the ground-facing surface, wherein the first midsole body includes a first midsole material, and the first midsole material has a first hardness; and a second midsole body extending through the first midsole body such that the second midsole body extends beyond the ground-facing surface of the first midsole body, wherein the second midsole body includes a second midsole material, the second midsole material has a second hardness, and the first hardness is greater than the second hardness, wherein the second midsole body includes a midsole heel portion, a midsole forefoot portion, and a midsole midfoot portion between the midsole heel portion and the midsole forefoot portion; wherein the midsole heel portion has a camber; and wherein the second midsole body is tapered along the midsole midfoot portion and the midsole forefoot portion such that a width of the second midsole body decreases from the midsole midfoot portion toward the midsole forefoot portion. a first midsole body defining a ground-facing surface and an foot-facing surface opposite the ground-facing surface, wherein the first midsole body includes a first midsole material, and the first midsole material has a first hardness; and a second midsole body extending through the first midsole body such that the second midsole body extends beyond the ground-facing surface of the first midsole body, wherein the second midsole body includes a second midsole material, the second midsole material has a second hardness, and the first hardness is greater than the second hardness, wherein the second midsole body includes a midsole heel portion, a midsole forefoot portion, and a midsole midfoot portion between the midsole heel portion and the midsole forefoot portion; wherein the midsole heel portion has a camber; and wherein the second midsole body is tapered along the midsole midfoot portion and the midsole forefoot portion such that a width of the second midsole body decreases from the midsole midfoot portion toward the midsole forefoot portion.
A lid for a metal container, which lid comprises a metal middle part and a plastic circumferential part attached to it and surrounding it, the circumferential part forming the outer circumference of the lid and having an outer circumferential section and an inner circumferential section as well as a bridge section connecting them, which together define a groove opening downwards, and in which the inner circumferential section of the circumferential part comprises at least one seal element directed downwards and towards the outer circumferential section, wherein the seal element comprises a first slanting surface which is towards a central axis of the lid and runs slantwise from up downwards towards the outer circumferential section of the circumferential part, and a second slanting surface which is directed away from the central axis of the lid and runs slantwise from up downwards towards the outer circumferential section of the circumferential part, and, in the lower part of the seal element, an end surface which connects lower edges (15', 16') of said slanting surfaces (15, 16) and forms the lower surface of the seal element, characterized in that on the lower surface of the seal element there is a first auxiliary seal extending around the whole circumference of the seal element.
A pulse generator circuit arrangement for insulation fault location in IT networks, comprising a rectifier circuit for transforming the IT network voltage into a DC intermediate circuit, switching elements having a trigger signal input for switching on and off a DC intermediate circuit voltage, and comprising, downstream of the switching elements, a circuit device for generating a pulsed current to be supplied to the IT network, characterized by a control and evaluating logic for determining the insulation resistance of the IT network and by the circuit device for generating the pulsed current, which is configured as a current regulating device which allows a dynamic adaptive adjustment of the pulsed current depending on the simultaneously determined insulation resistance.
A tunable LED lamp for producing a biologically-adjusted light output with a color rendering index above 70, comprising: a base; a housing attached to the base; a power circuit disposed within the housing and having electrical leads attached to the base; a drive circuit disposed within the housing and electrically coupled to the power circuit; a heat sink disposed about the housing; a plurality of LED dies mounted on a support coupled to the housing, wherein each of the plurality of LED dies is electrically coupled to and driven by the drive circuit; and an output-select controller electrically coupled to the drive circuit to program the drive circuit to drive the LED dies in one of a plurality of light output configurations, wherein the plurality of light output configurations includes a pre-sleep configuration, a phase-shift configuration, and a general lighting configuration; characterized in that the plurality of LED dies includes a ratio of two red-orange LED dies to three cyan LED dies to three mint LED dies to three blue LED dies. a base; a housing attached to the base; a power circuit disposed within the housing and having electrical leads attached to the base; a drive circuit disposed within the housing and electrically coupled to the power circuit; a heat sink disposed about the housing; a plurality of LED dies mounted on a support coupled to the housing, wherein each of the plurality of LED dies is electrically coupled to and driven by the drive circuit; and an output-select controller electrically coupled to the drive circuit to program the drive circuit to drive the LED dies in one of a plurality of light output configurations, wherein the plurality of light output configurations includes a pre-sleep configuration, a phase-shift configuration, and a general lighting configuration;
Dynamic exterior aircraft light unit, configured for being mounted to an aircraft for illuminating an aircraft environment, the dynamic exterior aircraft light unit comprising: an LED group, comprising a plurality of LEDs, and an optical system, comprising at least one optical element (8, 9), the optical system being associated with the LED group for shaping an output light intensity distribution from the light emitted by the LED group, wherein the LED group and the optical system are stationary within the dynamic exterior aircraft light unit, with each LED of the LED group having a set position with respect to the optical system, and wherein the dynamic exterior aircraft light unit is configured to be operated in a plurality of operating modes, with a respective subset of the plurality of LEDs being switched on in each of the plurality of operating modes and with a different output light intensity distribution being emitted by the dynamic exterior aircraft light unit in each of the plurality of operating modes, characterized in that a selection of the operating mode depends on an acceleration of the aircraft in the aircraft frame of reference, wherein the selection of the operating mode depends on the acceleration of the aircraft over an acceleration consideration interval, and wherein the dynamic exterior aircraft light unit is configured to determine a net acceleration direction from the acceleration of the aircraft over the acceleration consideration interval, wherein the selection of the operating mode depends on the net acceleration direction. an LED group, comprising a plurality of LEDs, and an optical system, comprising at least one optical element (8, 9), the optical system being associated with the LED group for shaping an output light intensity distribution from the light emitted by the LED group, wherein the LED group and the optical system are stationary within the dynamic exterior aircraft light unit, with each LED of the LED group having a set position with respect to the optical system, and wherein the dynamic exterior aircraft light unit is configured to be operated in a plurality of operating modes, with a respective subset of the plurality of LEDs being switched on in each of the plurality of operating modes and with a different output light intensity distribution being emitted by the dynamic exterior aircraft light unit in each of the plurality of operating modes, characterized in that a selection of the operating mode depends on an acceleration of the aircraft in the aircraft frame of reference, wherein the selection of the operating mode depends on the acceleration of the aircraft over an acceleration consideration interval, and wherein the dynamic exterior aircraft light unit is configured to determine a net acceleration direction from the acceleration of the aircraft over the acceleration consideration interval, wherein the selection of the operating mode depends on the net acceleration direction.
The cyano-derivatized oligonophenylacetylene-based fluorescent small molecule 2,2'-((2,5-bis((2-ethylhexyl)oxy)-1,4-phenylene)bis(ethyne-2,1-diyl))dibenzonitrile characterized in that in the general formula,
A method, performed by a User Equipment, UE, comprising: receiving a UE capability enquiry message which is used to request UE capability information; transmitting a UE capability information message, the UE capability information message including information indicating whether the UE supports a capability of skipping uplink, UL, transmission for a Semi-Persistent Scheduling, SPS, uplink grant if there is no data for transmission and information indicating that the UE supports uplink SPS with an interval of 1 ms, 2 ms, 3 ms, 4 ms, or 5 ms when the UE supports short interval SPS; and dropping the SPS uplink grant when the UE is configured to skip the SPS uplink grant and when there is no data for transmission, if the UE supports the capability. receiving a UE capability enquiry message which is used to request UE capability information; transmitting a UE capability information message, the UE capability information message including information indicating whether the UE supports a capability of skipping uplink, UL, transmission for a Semi-Persistent Scheduling, SPS, uplink grant if there is no data for transmission and information indicating that the UE supports uplink SPS with an interval of 1 ms, 2 ms, 3 ms, 4 ms, or 5 ms when the UE supports short interval SPS; and dropping the SPS uplink grant when the UE is configured to skip the SPS uplink grant and when there is no data for transmission, if the UE supports the capability.
Turbine, in particular a turbine having a heat exchanger for the production of electrical power, comprising at least one compression stage having at least one gas compressor, a cross-flow heat exchanger comprising an inlet header for compressed gas, an outlet header for compressed gas, an inlet header for superheated compressed gas, an outlet header for cooled expanded gas, a combustion chamber, at least one expansion stage having at least one expansion turbine connected by a shaft to the compressor, and a generator, the expansion turbine comprising an inlet for superheated compressed gas and an outlet for superheated expanded gas, the outlet header for compressed gas comprising the combustion chamber and the outlet header for compressed gas being closed at one of its ends by an injector-carrier partition of the combustion chamber, characterized in that the shaft extends beyond the compressor so as to be connected to the generator.
A subsea foundation, comprising: at least one mudmat having a top panel and a skirt depending from the top panel to be embedded into seabed soil; and at least one auxiliary plate supported by the mudmat, the plate being deployable downwardly from a raised, retracted position in which the plate is held above a lower edge of the skirt into a lowered, deployed position in which the plate extends beneath the lower edge of the skirt to be embedded further into the seabed soil. at least one mudmat having a top panel and a skirt depending from the top panel to be embedded into seabed soil; and at least one auxiliary plate supported by the mudmat, the plate being deployable downwardly from a raised, retracted position in which the plate is held above a lower edge of the skirt into a lowered, deployed position in which the plate extends beneath the lower edge of the skirt to be embedded further into the seabed soil.
A manual swing clamp comprising: a body having a first end and a second end, the body defining a bore through the first end and a cavity at the second end, the bore communicating with the cavity, a plunger slidably and rotatably held in the bore of the body; a lever pivotally connected to the second end; a link arm pivotally connected between the plunger and lever; a housing coupled with the first end of the body, the housing including a first and second cylinder, the first cylinder including a slot for receiving a pin coupled with the plunger, the second cylinder coaxially positioned about the first cylinder to provide a cover; and a clamp finger secured on an end of the plunger, the clamp finger rotating as the plunger is moved in the first cylinder. a body having a first end and a second end, the body defining a bore through the first end and a cavity at the second end, the bore communicating with the cavity, a plunger slidably and rotatably held in the bore of the body; a lever pivotally connected to the second end; a link arm pivotally connected between the plunger and lever; a housing coupled with the first end of the body, the housing including a first and second cylinder, the first cylinder including a slot for receiving a pin coupled with the plunger, the second cylinder coaxially positioned about the first cylinder to provide a cover; and a clamp finger secured on an end of the plunger, the clamp finger rotating as the plunger is moved in the first cylinder.
Robotic device comprising a stationary base, a first arm rotationally mounted on the base for rotation about a first axis, a second arm rotationally mounted on the first arm for rotation about a second axis, which second axis is parallel to the first axis, a first driving device for driving the first arm to rotate about the first axis, and a second arm drive unit with a second driving device for driving the second arm to rotate about the second axis, and a linear drive unit with a third driving device for moving the first arm and the second arm in a direction parallel to the first axis and the second axis, wherein the first driving device, the second driving devices and the third driving devices are mounted stationary at the base, characterized in that the first arm is mounted to the base by a first column driven to rotate about the first axis, wherein the first arm is non-rotatably, but axially displaceable along the first axis coupled to the first column.
A method for providing a controlled flow stream from a non-precision pressure source, comprising: providing a pressure to a pressure chamber (46a, 46b, 46c) using a non-precision pressure source, the pressure in the pressure chamber providing a velocity to the flow stream; sensing the velocity of the flow stream; and adjusting the pressure in the pressure chamber (46a, 46b, 46c) in response to the sensed velocity of the flow stream to control the velocity of the flow stream. providing a pressure to a pressure chamber (46a, 46b, 46c) using a non-precision pressure source, the pressure in the pressure chamber providing a velocity to the flow stream; sensing the velocity of the flow stream; and adjusting the pressure in the pressure chamber (46a, 46b, 46c) in response to the sensed velocity of the flow stream to control the velocity of the flow stream.
A controller for a permanent magnet motor/generator having a plurality of phase windings, wherein the controller comprises: a motor speed measurement module for determining a current speed; a speed setting module for setting a desired motor speed of the permanent magnet motor; a control system; and a commutation circuit operative for controlling a commutation event, said commutation event being a timing of a current supplied to the phase windings in dependence upon an angular position of the permanent magnet electric rotating machine (2; 102), wherein the control system is operative to supply one or more current pulses to a given phase winding in a current pulse event, said current pulse event occurring within the commutation event, characterised in that the commutation circuit comprises a commutation feedback loop for supplying the one or more current pulses to the given phase winding when the amplitude of the sensed back EMF for the corresponding phase winding is greater than the back EMF sensed in respect of the other ones of the plurality of phase windings; wherein the duration of the current pulse event is less than the duration of the commutation event and the proportion of the commutation event for which the current is supplied to the individual of the phase windings is determined from a comparison of a desired speed and a current speed of the permanent magnet motor/generator (2; 102). a motor speed measurement module for determining a current speed; a speed setting module for setting a desired motor speed of the permanent magnet motor; a control system; and a commutation circuit operative for controlling a commutation event, said commutation event being a timing of a current supplied to the phase windings in dependence upon an angular position of the permanent magnet electric rotating machine (2; 102), wherein the control system is operative to supply one or more current pulses to a given phase winding in a current pulse event, said current pulse event occurring within the commutation event, characterised in that the commutation circuit comprises a commutation feedback loop for supplying the one or more current pulses to the given phase winding when the amplitude of the sensed back EMF for the corresponding phase winding is greater than the back EMF sensed in respect of the other ones of the plurality of phase windings; wherein the duration of the current pulse event is less than the duration of the commutation event and the proportion of the commutation event for which the current is supplied to the individual of the phase windings is determined from a comparison of a desired speed and a current speed of the permanent magnet motor/generator (2; 102).
Implantable connection cable assembly for an actuator unit of an implant, having a plug connector and a cable harness which terminates in the plug connector and has at least two connection cables, the plug connector having a plug housing and at least two contact elements which each are connected to a connection cable, wherein cavities between the plug housing, the contact elements and the cable harness being cast with a casting compound, and wherein the at least two contact elements are fixed in the plug housing and each have a cable receptacle for electrical connection to the connecting cable of the cable harness and a separate connection interface for electrical connection to the drive assembly of the actuator unit, and wherein the separate connection interfaces of the at least two contact elements are configured as contact sockets for receiving contact pins, characterized in that the contact sockets for receiving contact pins having a groove in which an electrically conductive, obliquely wound spring is arranged in order to form an electrical contact with the contact pins.
Device for holographic and hyperspectral measuring and analyzing of a sample, said device comprising: - an acquisition device of an image containing spectral and amplitude information of the light signal illuminating said sample; and holographic interference figures of a reference light beam and of a light beam having illuminated said sample containing the amplitude and phase information of the light signal illuminating said sample; and - an illumination device of said sample; and - a device for reconstructing the hyperspectral holographic image and analyzing the amplitude, phase and spectrum properties of the light illuminating said sample integrating a deep and convolutional neural network architectured for calculating a probability of presence of the particularity (-ies) sought in said sample from the hyperspectral holographic image, and generating an image for each sought particularity whose value of each pixel at the x and y coordinates corresponds to the probability presence of said particularity at the same x and y coordinates of said sample. - an acquisition device of an image containing spectral and amplitude information of the light signal illuminating said sample; and holographic interference figures of a reference light beam and of a light beam having illuminated said sample containing the amplitude and phase information of the light signal illuminating said sample; and - an illumination device of said sample; and - a device for reconstructing the hyperspectral holographic image and analyzing the amplitude, phase and spectrum properties of the light illuminating said sample integrating a deep and convolutional neural network architectured for calculating a probability of presence of the particularity (-ies) sought in said sample from the hyperspectral holographic image, and generating an image for each sought particularity whose value of each pixel at the x and y coordinates corresponds to the probability presence of said particularity at the same x and y coordinates of said sample.
A liquid delivery system comprising: a source of hydraulic fluid; a hydraulic cylinder fluidically coupled to the source of hydraulic fluid and having a hydraulic piston movable between first and second limit positions; a hydraulic piston rod connected to the hydraulic piston and extending out of the hydraulic cylinder; a sensor device (204, 206) located outside the hydraulic cylinder and configured to sense a position of the hydraulic piston rod and to generate a signal indicating the sensed position; a liquid cylinder comprising a liquid piston, operably driven by the rod, to pump a liquid along a flow path to a fluid applicator; wherein the sensor is configured to detect a component operably coupled to the hydraulic piston, such that movement of the hydraulic piston causes a corresponding movement of the component; wherein the sensor device (204, 206) comprises a hall effect sensor; characterised in that the component comprises a ferrous metal and the sensor device (204, 206) further comprises a magnet; wherein the component couples the hydraulic piston rod to the liquid piston. a source of hydraulic fluid; a hydraulic cylinder fluidically coupled to the source of hydraulic fluid and having a hydraulic piston movable between first and second limit positions; a hydraulic piston rod connected to the hydraulic piston and extending out of the hydraulic cylinder; a sensor device (204, 206) located outside the hydraulic cylinder and configured to sense a position of the hydraulic piston rod and to generate a signal indicating the sensed position; a liquid cylinder comprising a liquid piston, operably driven by the rod, to pump a liquid along a flow path to a fluid applicator; wherein the sensor is configured to detect a component operably coupled to the hydraulic piston, such that movement of the hydraulic piston causes a corresponding movement of the component; wherein the sensor device (204, 206) comprises a hall effect sensor; characterised in that the component comprises a ferrous metal and the sensor device (204, 206) further comprises a magnet; wherein the component couples the hydraulic piston rod to the liquid piston.