mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an interface to receive at least one set of sensor information based on sensor data that is recorded concurrently with a recorded video, the sensor data other than video; and a video clip creation module to identify a sensor event from the at least one set of sensor information and to automatically generate a video clip based upon the sensor event, the sensor event being detected activity based upon the sensor data, the video clip comprising video content from the recorded video that is synchronized to the sensor event, characterized in that the video clip creation module is arranged to predict an activity to be captured in the video based upon the sensor event, during recording of the video, and to generate a signal to recommend to a user of a video recording device to move the video recording device to capture in video the predicted activity. an interface to receive at least one set of sensor information based on sensor data that is recorded concurrently with a recorded video, the sensor data other than video; and a video clip creation module to identify a sensor event from the at least one set of sensor information and to automatically generate a video clip based upon the sensor event, the sensor event being detected activity based upon the sensor data, the video clip comprising video content from the recorded video that is synchronized to the sensor event, characterized in that the video clip creation module is arranged to predict an activity to be captured in the video based upon the sensor event, during recording of the video, and to generate a signal to recommend to a user of a video recording device to move the video recording device to capture in video the predicted activity.
A system for displaying a 3D image with depths comprising: a light signal generator for sequentially generating multiple light signals, wherein the light signal generator comprises a collimator ; and at least one optical assembly for receiving the multiple light signals from the light signal generator , and for reflecting the multiple light signals with at least a first angle and a second angle forming a first pixel of the 3D image within a predetermined time period based on a predetermined scanning pattern to a viewer; wherein the at least one optical assembly comprises an adjustable reflector that rotatably varies an angle of reflection to reflect the multiple light signals at the first angle and the second angle to respectively generate a first light signal and a second light signal, wherein the at least one optical assembly further comprises a fixed reflector to reflect the first light signal and the second light signal to a viewer's eye; and paths or extensions of the paths of the at first light signal and the second light signal intersect at the position and at an angle associated with a depth of the pixel, and the predetermined time period is one eighteenth of a second. a light signal generator for sequentially generating multiple light signals, wherein the light signal generator comprises a collimator ; and at least one optical assembly for receiving the multiple light signals from the light signal generator , and for reflecting the multiple light signals with at least a first angle and a second angle forming a first pixel of the 3D image within a predetermined time period based on a predetermined scanning pattern to a viewer; wherein the at least one optical assembly comprises an adjustable reflector that rotatably varies an angle of reflection to reflect the multiple light signals at the first angle and the second angle to respectively generate a first light signal and a second light signal, wherein the at least one optical assembly further comprises a fixed reflector to reflect the first light signal and the second light signal to a viewer's eye; and paths or extensions of the paths of the at first light signal and the second light signal intersect at the position and at an angle associated with a depth of the pixel, and the predetermined time period is one eighteenth of a second.
An energy conversion device driven by wind power, comprising: i. a housing to protect the working components of the device from environmental damage and to insure correct flow of air through the device; ii. at least one directing element , connected to the housing ; iii. air exit and entrance openings; iv. a transmission system ; and v. lifting means for adjustment of the height of the structure above the ground or water; the energy conversion device is characterized in that the housing comprises: i. inside components forming a carousel; ii. a frame structure surrounding the components inside the housing ; iii. one or more sloped surfaces inside the housing ; iv. set of sails, wherein each sail is comprised of a pair of blades connected by a hinge-like structure , wherein the free end of one of said blades is connected to said sloped surface by a rail and the free end of the other of said blades is connected to a fixed point on said frame structure . i. a housing to protect the working components of the device from environmental damage and to insure correct flow of air through the device; ii. at least one directing element , connected to the housing ; iii. air exit and entrance openings; iv. a transmission system ; and v. lifting means for adjustment of the height of the structure above the ground or water; i. inside components forming a carousel; ii. a frame structure surrounding the components inside the housing ; iii. one or more sloped surfaces inside the housing ; iv. set of sails, wherein each sail is comprised of a pair of blades connected by a hinge-like structure , wherein the free end of one of said blades is connected to said sloped surface by a rail and the free end of the other of said blades is connected to a fixed point on said frame structure .
A cellular device comprising a linear amplifier , said linear amplifier comprising: a first stage amplifier circuit , comprising: two input transistors (M1, M2) configured to receive a differential input signal to generate an amplified differential signal; a first circuit ; a second circuit ; and a switch module configured to couple the two input transistors to the first circuit or the second circuit ; wherein at least one of a bandwidth and a gain of the linear amplifier when the two input transistors are coupled to the first circuit is different from the one of the bandwidth and the gain of the linear amplifier when the two input transistors are coupled to the second circuit ; wherein the switch module is controlled to couple the two input transistors to the first circuit to make the linear amplifier have the higher bandwidth when the cellular device operates in a time division duplex, TDD, mode; and wherein the switch module is controlled to couple the two input transistors to the second circuit to make the linear amplifier have the higher gain when the cellular device operates in a frequency division duplex, FDD, mode. two input transistors (M1, M2) configured to receive a differential input signal to generate an amplified differential signal; a first circuit ; a second circuit ; and a switch module configured to couple the two input transistors to the first circuit or the second circuit ; wherein at least one of a bandwidth and a gain of the linear amplifier when the two input transistors are coupled to the first circuit is different from the one of the bandwidth and the gain of the linear amplifier when the two input transistors are coupled to the second circuit ; wherein the switch module is controlled to couple the two input transistors to the first circuit to make the linear amplifier have the higher bandwidth when the cellular device operates in a time division duplex, TDD, mode; and wherein the switch module is controlled to couple the two input transistors to the second circuit to make the linear amplifier have the higher gain when the cellular device operates in a frequency division duplex, FDD, mode.
An LED driver circuit , the circuit comprising: a signal conditioning circuit configured to limit an input current from an incoming control signal ; a voltage regulation circuit in parallel with the signal conditioning circuit, the voltage regulation circuit configured to limit a maximum voltage to a remaining portion of the LED driver circuit ; a load circuit ; a switching mode power supply circuit in parallel with the signal conditioning circuit , the switching mode power supply circuit configured to deliver a load current to the load circuit , such that the load current is greater than the input current, the load circuit including an LED array; characterized by a dynamic current regulator circuit in series with the switching mode power supply circuit, the dynamic current regulator circuit including a first capacitor in parallel with a first resistor , the dynamic current regulator circuit configured such that current through the first capacitor is greater than current through the first resistor; and a rectifier circuit in parallel with the signal conditioning circuit and the voltage regulation circuit. a signal conditioning circuit configured to limit an input current from an incoming control signal ; a voltage regulation circuit in parallel with the signal conditioning circuit, the voltage regulation circuit configured to limit a maximum voltage to a remaining portion of the LED driver circuit ; a load circuit ; a switching mode power supply circuit in parallel with the signal conditioning circuit , the switching mode power supply circuit configured to deliver a load current to the load circuit , such that the load current is greater than the input current, the load circuit including an LED array; characterized by a dynamic current regulator circuit in series with the switching mode power supply circuit, the dynamic current regulator circuit including a first capacitor in parallel with a first resistor , the dynamic current regulator circuit configured such that current through the first capacitor is greater than current through the first resistor; and a rectifier circuit in parallel with the signal conditioning circuit and the voltage regulation circuit.
An optoelectronic device (10; 55) comprising: a support ; at least one first electrically-conductive layer covering the support; display pixel circuits (Pix) comprising first and second opposite surfaces bonded to the first electrically-conductive layer, each display pixel circuit comprising an electronic circuit comprising the first surface and a third surface opposite to the first surface, the first surface being bonded to the first electrically-conductive layer, and an optoelectronic circuit bonded to the third surface and comprising at least two light-emitting diodes (LED), at least one of the electrodes of each light-emitting diode being connected to the electronic circuit by the third surface, the optoelectronic circuit further comprising photoluminescent blocks covering the light-emitting diodes and electrically-conductive or semiconductor walls surrounding the photoluminescent blocks; and at least one second electrically-conductive layer electrically coupled to at least one of the display pixel circuits. a support ; at least one first electrically-conductive layer covering the support; display pixel circuits (Pix) comprising first and second opposite surfaces bonded to the first electrically-conductive layer, each display pixel circuit comprising an electronic circuit comprising the first surface and a third surface opposite to the first surface, the first surface being bonded to the first electrically-conductive layer, and an optoelectronic circuit bonded to the third surface and comprising at least two light-emitting diodes (LED), at least one of the electrodes of each light-emitting diode being connected to the electronic circuit by the third surface, the optoelectronic circuit further comprising photoluminescent blocks covering the light-emitting diodes and electrically-conductive or semiconductor walls surrounding the photoluminescent blocks; and at least one second electrically-conductive layer electrically coupled to at least one of the display pixel circuits.
Windscreen wiper device for a vehicle with a fastening element fixed on a drive shaft, more particularly for a motor vehicle, comprising a wiper blade with - an elongated upper part , which is configured at least partially flexibly, - an elongated lower part , which is configured at least partially flexibly, - several connecting elements for connecting the upper part and the lower part , wherein the connecting elements are spaced apart from one another along a longitudinal extension of the wiper blade , and wherein the connecting elements are designed in order to enable a movement of the upper part and the lower part relative to one another with a component of movement along a longitudinal extension of the wiper blade , - a fastening part on the wiper blade side wherein the fastening part on the wiper blade side is detachably connectable to the fastening element , and - a coupling device, characterized in that the fastening part on the wiper blade side and the fastening element are connectable to one another for conjoint rotation until a defined torque value is exceeded, and are completely releasable from one another, by means of the coupling device, wherein the fastening element and the coupling device comprise in particular a coupling element which is attached to the fastening element and is moved when the defined torque value is reached. - an elongated upper part , which is configured at least partially flexibly, - an elongated lower part , which is configured at least partially flexibly, - several connecting elements for connecting the upper part and the lower part , wherein the connecting elements are spaced apart from one another along a longitudinal extension of the wiper blade , and wherein the connecting elements are designed in order to enable a movement of the upper part and the lower part relative to one another with a component of movement along a longitudinal extension of the wiper blade , - a fastening part on the wiper blade side wherein the fastening part on the wiper blade side is detachably connectable to the fastening element , and - a coupling device, characterized in that the fastening part on the wiper blade side and the fastening element are connectable to one another for conjoint rotation until a defined torque value is exceeded, and are completely releasable from one another, by means of the coupling device, wherein the fastening element and the coupling device comprise in particular a coupling element which is attached to the fastening element and is moved when the defined torque value is reached.
A bung plug closure for bung-hole containers, the bung plug closure comprising a bung plug for being placed in a bung neck of the bung-hole container and a seal cap for closing a plug recess formed in the bung plug , the bung plug having key projections which are spaced apart from each other by gaps , are disposed on an interior wall of the plug recess and whose inner surfaces define a receiving space , and a valve being disposed in a bottom of the plug recess , said valve having a valve body which is disposed in a valve opening of a bottom recess , said valve body being provided with a valve cover which is connected to the bung plug and which is provided with a vent , the valve cover being an elastically deformable disk whose diameter d is smaller than a diameter D of the receiving space , characterized in that the receiving space serves to receive a dimensionally elastic engaging body which is formed on the seal cap and which is provided with a radial locking protrusion , matching locking elements for interlocking with the locking protrusion of the engaging body are provided in the plug recess , said matching locking elements protruding radially inward over the locking protrusion of the engaging body after interlocking, and the valve cover is connected to the bung plug in such a manner that a circumferential edge of the valve cover , which protrudes radially outward over the matching locking elements , is received between the locking protrusion of the engaging body and a recess edge of the bottom recess . and a valve being disposed in a bottom of the plug recess , said valve having a valve body which is disposed in a valve opening of a bottom recess , said valve body being provided with a valve cover which is connected to the bung plug and which is provided with a vent , the valve cover being an elastically deformable disk whose diameter d is smaller than a diameter D of the receiving space , characterized in that the receiving space serves to receive a dimensionally elastic engaging body which is formed on the seal cap and which is provided with a radial locking protrusion , matching locking elements for interlocking with the locking protrusion of the engaging body are provided in the plug recess , said matching locking elements protruding radially inward over the locking protrusion of the engaging body after interlocking, and the valve cover is connected to the bung plug in such a manner that a circumferential edge of the valve cover , which protrudes radially outward over the matching locking elements , is received between the locking protrusion of the engaging body and a recess edge of the bottom recess .
A gas turbine engine internally cooled airfoil , comprising: a peripheral wall having an external surface comprising a suction surface and a pressure surface laterally spaced from the suction surface , the surfaces extending chordwisely from a leading edge to a trailing edge and radially from a proximate end to a distal end ; a cooling system comprising at least one or more passages bounded in part by the peripheral wall , where at least a first of the one or more passages includes a first passage pressure side surface that includes an interior protrusion comprising a first sloped surface extending to a peak of the interior protrusion and a second sloped surface extending from the peak substantially in the direction of the pressure side surface , where the slope of the second sloped surface is greater than the slope of the first sloped surface and a first cooling hole extends from the second sloped surface through the interior protrusion to vent the first of the one or more passages to the pressure side surface ; and a debris passage in a radial tip of the internally cooled airfoil and in fluid communication with the first passage to allow debris to pass from the first passage through the debris passage , wherein the first and second sloped surfaces intersect to form a rounded edge , wherein the slope of the first sloped surface and the slope of the second sloped surface are selected so dirt particles within the first passage are routed away from the first cooling hole . a peripheral wall having an external surface comprising a suction surface and a pressure surface laterally spaced from the suction surface , the surfaces extending chordwisely from a leading edge to a trailing edge and radially from a proximate end to a distal end ; a cooling system comprising at least one or more passages bounded in part by the peripheral wall , where at least a first of the one or more passages includes a first passage pressure side surface that includes an interior protrusion comprising a first sloped surface extending to a peak of the interior protrusion and a second sloped surface extending from the peak substantially in the direction of the pressure side surface , where the slope of the second sloped surface is greater than the slope of the first sloped surface and a first cooling hole extends from the second sloped surface through the interior protrusion to vent the first of the one or more passages to the pressure side surface ; and a debris passage in a radial tip of the internally cooled airfoil and in fluid communication with the first passage to allow debris to pass from the first passage through the debris passage , wherein the first and second sloped surfaces intersect to form a rounded edge , wherein the slope of the first sloped surface and the slope of the second sloped surface are selected so dirt particles within the first passage are routed away from the first cooling hole .
Method for operating an electric circuit, wherein the electric circuit is provided with a power converter having at least one series circuit that is connected to a terminal P(+) for a positive potential and to a terminal M(-) for a negative potential, and each series circuit consists of four power semiconductor elements, wherein the connection point of the two middle power semiconductor elements forms a terminal for an alternating voltage, and wherein the electric circuit is provided with at least two series-connected capacitors (Cdl, Cd2) which are connected in parallel with the series circuit and wherein the series-connected capacitors are connected at one end to the terminal P(+) and at the other end to the terminal M(-) and the connection point of the capacitors (Cdl, Cd2) forms a third terminal for a zero potential, two series-connected diodes (D5, D6) being connected in parallel in opposite senses to the central two power semiconductor elements, the connection point of which is connected to the connection point of the two capacitors (Cdl, Cd2), at least one resistor being connected in parallel to the central two power semiconductor elements, characterised in that in the method at least one of the two outer power semiconductor elements is conductively connected and in this way a discharge current is generated from the at least one capacitor (Cdl, Cd2) via the at least one conductively connected power semiconductor element and the resistor.
A preparation method of a rare earth permanent magnet material, characterized by comprising: a sintering treatment step, laying a composite powder for diffusion on the surface of a neodymium iron boron magnetic powder layer placed in a mold, and carrying out spark plasma sintering treatment to obtain a neodymium iron boron magnet with a diffusion layer solidified on the surface thereof, wherein a compositional proportional formula of the composite powder for diffusion is H 100-x-y M x Q y , wherein H is one or more of metal powders of Dy, Tb, Ho, and Gd, or H is one or more of fluoride powders or oxide powders of Dy, Tb, Ho, and Gd, M is a Nd, Pr, or NdPr metal powder, and Q is one or more of Cu, Al, Zn, and Sn metal powders; x and y are respectively atomic percentages of component M and component Q in the composite powder for diffusion, x is 0-20, and y is 0-40; a diffusion heat treatment step, carrying out a diffusion heat treatment on a neodymium iron boron magnet with a diffusion layer solidified on the surface thereof and performing a cooling to obtain a diffused neodymium iron boron magnet; and a tempering treatment step, carrying out a tempering treatment on the diffused neodymium iron boron magnet to obtain the rare earth permanent magnet material. a sintering treatment step, laying a composite powder for diffusion on the surface of a neodymium iron boron magnetic powder layer placed in a mold, and carrying out spark plasma sintering treatment to obtain a neodymium iron boron magnet with a diffusion layer solidified on the surface thereof, wherein a compositional proportional formula of the composite powder for diffusion is H 100-x-y M x Q y , wherein H is one or more of metal powders of Dy, Tb, Ho, and Gd, or H is one or more of fluoride powders or oxide powders of Dy, Tb, Ho, and Gd, M is a Nd, Pr, or NdPr metal powder, and Q is one or more of Cu, Al, Zn, and Sn metal powders; x and y are respectively atomic percentages of component M and component Q in the composite powder for diffusion, x is 0-20, and y is 0-40; a diffusion heat treatment step, carrying out a diffusion heat treatment on a neodymium iron boron magnet with a diffusion layer solidified on the surface thereof and performing a cooling to obtain a diffused neodymium iron boron magnet; and a tempering treatment step, carrying out a tempering treatment on the diffused neodymium iron boron magnet to obtain the rare earth permanent magnet material.