mhurhangee/ep-ind-claims huggingface dataset:
A cleaning system for removal of contaminants from a surface of a lambda probe, or a temperature probe, or a heat exchanger (404, 418) exposed to a gas or fluid flow, the cleaning system comprises: - an excitation device (206;302;600;700) adapted to be attached to the vehicle component in the vicinity of the surface exposed to contaminants, wherein the excitation device is configured to cause the surface to mechanically vibrate by transferring a vibrational excitation to the surface, wherein the excitation device is arrangeable isolated from the gas or fluid flow - wherein the frequency of the vibrational excitation is controllable based on the configuration of the vehicle component, wherein the frequency of the vibrational excitation is swept through a frequency range comprising the natural frequency of the respective one of the lambda probe, or the temperature probe, or the heat exchanger, characterized in that the frequency of the vibrational excitation is in the range of 15 kHz to 10 GHz. - an excitation device (206;302;600;700) adapted to be attached to the vehicle component in the vicinity of the surface exposed to contaminants, wherein the excitation device is configured to cause the surface to mechanically vibrate by transferring a vibrational excitation to the surface, wherein the excitation device is arrangeable isolated from the gas or fluid flow - wherein the frequency of the vibrational excitation is controllable based on the configuration of the vehicle component, wherein the frequency of the vibrational excitation is swept through a frequency range comprising the natural frequency of the respective one of the lambda probe, or the temperature probe, or the heat exchanger, characterized in that the frequency of the vibrational excitation is in the range of 15 kHz to 10 GHz.
A synchronous timing pulse generation circuit, applicable to a switching power supply, wherein the switching power supply has a primary side and a secondary side, the switching power supply enables a power to be selectively input or not input to the primary side through a pulse-width-modulation signal (V PWM), the synchronous timing pulse generation circuit is used to generate a starting pulse (V sync) for triggering the pulse-width-modulation signal (V PWM), characterized in that the synchronous timing pulse generation circuit comprises: a time delay unit, for outputting a control signal after delaying the starting pulse (V sync) for a predetermined time; a timing pulse regulation unit, for enabling a constant current source to selectively charge the timing pulse regulation unit according to the control signal, and accordingly outputting a timing pulse signal (T END); and a synchronization control unit, for outputting the starting pulse (V sync) according to a discharging time signal (V DSC) of the secondary side and the timing pulse signal (T END), wherein the timing pulse signal (T END) has a rising edge, the discharging time signal (V DSC) has a falling edge, a triggering time of the starting pulse (V sync) is synchronized to one occurring later of the rising edge of the timing pulse signal (T END) and the falling edge of the discharging time signal (V DSC) in the same period, and the starting pulse (V sync) is used to determine a pulse starting time of the pulse-width-modulation signal (V PWM). a time delay unit, for outputting a control signal after delaying the starting pulse (V sync) for a predetermined time; a timing pulse regulation unit, for enabling a constant current source to selectively charge the timing pulse regulation unit according to the control signal, and accordingly outputting a timing pulse signal (T END); and a synchronization control unit, for outputting the starting pulse (V sync) according to a discharging time signal (V DSC) of the secondary side and the timing pulse signal (T END), wherein the timing pulse signal (T END) has a rising edge, the discharging time signal (V DSC) has a falling edge, a triggering time of the starting pulse (V sync) is synchronized to one occurring later of the rising edge of the timing pulse signal (T END) and the falling edge of the discharging time signal (V DSC) in the same period, and the starting pulse (V sync) is used to determine a pulse starting time of the pulse-width-modulation signal (V PWM).
A method, comprising: Receiving, at a computing device, a first set of images of an object, wherein images of the first set of images are captured from respective angles with respect to the object; Receiving a second set of images of the object, wherein images of the second set of images are captured from the respective angles with respect to the object and are indexed such that each image of the second set of images corresponds to a respective image of the first set of images, wherein the images of the second set of images are captured while a pattern is projected on the object and wherein the images of the second set of images have a lower resolution than the images of the first set of images; matching portions of the pattern in each image of the second set of images to corresponding portions of the pattern in spatially neighboring images of the second set of images so as to spatially align the images of the second set of images; determining respective images of the first set of images corresponding to spatially aligned images of the second set of images, based on indexing of the images of the second set of images to the images of the first set of images; and generating a three-dimensional image of the object based on the respective images of the first set of images determined to correspond to the spatially aligned images of the second set of images. Receiving, at a computing device, a first set of images of an object, wherein images of the first set of images are captured from respective angles with respect to the object; Receiving a second set of images of the object, wherein images of the second set of images are captured from the respective angles with respect to the object and are indexed such that each image of the second set of images corresponds to a respective image of the first set of images, wherein the images of the second set of images are captured while a pattern is projected on the object and wherein the images of the second set of images have a lower resolution than the images of the first set of images; matching portions of the pattern in each image of the second set of images to corresponding portions of the pattern in spatially neighboring images of the second set of images so as to spatially align the images of the second set of images; determining respective images of the first set of images corresponding to spatially aligned images of the second set of images, based on indexing of the images of the second set of images to the images of the first set of images; and generating a three-dimensional image of the object based on the respective images of the first set of images determined to correspond to the spatially aligned images of the second set of images.
A display device, comprising: a display screen; an image display system configured to display an image via the display screen and to switch between a first viewing mode and a second viewing mode; a user proximity detection system configured to sense a distance of a user from the display device; and a controller in communication with the image display system, the controller comprising a logic subsystem, and a data-holding subsystem comprising instructions executable by the logic subsystem to switch between the first viewing mode and the second viewing mode based upon the distance of the user from the display device; characterized in that the image when displayed in the second viewing mode is a virtual image displayed with a virtual image plane that is located farther behind the display screen than in the first viewing mode, in which the image appears at or near the display screen, the virtual image when displayed in the second viewing mode including one or more of additional detail and additional scope relative to the image when displayed in the first viewing mode; and in that the display device further comprises an optical system configured to form the virtual image and configured to be switched off for the first viewing mode and switched on for the second viewing mode. a display screen; an image display system configured to display an image via the display screen and to switch between a first viewing mode and a second viewing mode; a user proximity detection system configured to sense a distance of a user from the display device; and a controller in communication with the image display system, the controller comprising a logic subsystem, and a data-holding subsystem comprising instructions executable by the logic subsystem to switch between the first viewing mode and the second viewing mode based upon the distance of the user from the display device; characterized in that the image when displayed in the second viewing mode is a virtual image displayed with a virtual image plane that is located farther behind the display screen than in the first viewing mode, in which the image appears at or near the display screen, the virtual image when displayed in the second viewing mode including one or more of additional detail and additional scope relative to the image when displayed in the first viewing mode; and in that the display device further comprises an optical system configured to form the virtual image and configured to be switched off for the first viewing mode and switched on for the second viewing mode.
Air intake ring for an injection system of a combustion chamber of a turbomachine, having an axis of revolution, and comprising an annular separation wall that divides the air intake ring into an upstream air circulation space and a downstream air circulation space, and that extends radially inwards into an annular deflection wall having an internal profile with a convergent-divergent shape, the internal profile of the annular deflection wall having a discontinuity, characterised in that said discontinuity induces an increase in the radius (φ) of the internal profile downstream of said discontinuity.
A process for producing an electrode-gel electrolyte assembly based on porous carbonaceous material comprising radical-trapping sites, characterized in that it comprises: - a step of forming a bond between the radical-trapping sites of the carbonaceous material and functionalizing molecules, - a step of preparing a solution comprising at least one monofunctional monomer and at least one polyfunctional monomer, an ionic liquid and a radical initiator, - a step of impregnating the solution of said monomers into the pores (2, 3, 4) of the carbonaceous material, and - a step of in situ radical polymerization of said monomers. - a step of forming a bond between the radical-trapping sites of the carbonaceous material and functionalizing molecules, - a step of preparing a solution comprising at least one monofunctional monomer and at least one polyfunctional monomer, an ionic liquid and a radical initiator, - a step of impregnating the solution of said monomers into the pores (2, 3, 4) of the carbonaceous material, and - a step of in situ radical polymerization of said monomers.
A verification method for verifying system functions (110, 111, 112, 113, 114) of an oxygen reduction system, said functions being used during the operation of the oxygen reduction system, wherein the oxygen reduction system is designed to reduce and/or maintain an oxygen concentration level in at least one protection region by supplying inert gas originating from at least one inert gas source and to monitor or increase the oxygen concentration level, in particular previously reduced, in the protection region or in a monitoring region, having the following method steps: - detecting system functions (110, 111, 112, 113, 114) used during the operation of the oxygen reduction system, - generating a license data set, wherein the license data set contains licenses (l 1y, l 2y,..., l ny) used by the system functions (110, 111, 112, 113, 114) being used, - reading a verification data set provided on a storage medium, wherein the verification data set contains at least one existing license (L 1x, L 2x,..., L nx), - determining a license violation if each license (l 1y, l 2y,..., l ny) used is not contained in the verification data set, - outputting a message, in particular an error message, and/or deactivating at least one system function (110, 111, 112, 113, 114) if a license violation is detected, and wherein the verification method is implemented on at least one programmable control module (300, 310, 320, 330) and the system functions (110, 111, 112, 113, 114) used are detected with the help of a specific assignment of signal input and signal output channels (301, 302) of the at least one programmable control module (300, 310, 320, 330). - detecting system functions (110, 111, 112, 113, 114) used during the operation of the oxygen reduction system, - generating a license data set, wherein the license data set contains licenses (l 1y, l 2y,..., l ny) used by the system functions (110, 111, 112, 113, 114) being used, - reading a verification data set provided on a storage medium, wherein the verification data set contains at least one existing license (L 1x, L 2x,..., L nx), - determining a license violation if each license (l 1y, l 2y,..., l ny) used is not contained in the verification data set, - outputting a message, in particular an error message, and/or deactivating at least one system function (110, 111, 112, 113, 114) if a license violation is detected, and wherein the verification method is implemented on at least one programmable control module (300, 310, 320, 330) and the system functions (110, 111, 112, 113, 114) used are detected with the help of a specific assignment of signal input and signal output channels (301, 302) of the at least one programmable control module (300, 310, 320, 330).
Device for adjusting a camera angle, wherein the device has a stationary holder, a rotary plate mounted pivotably therein, and an adjusting means for pivotably adjusting the position of the rotary plate relative to the holder, wherein a camera can be arranged on the rotary plate, characterized in that the adjusting means has an axially fixed adjusting screw and a bushing, wherein the bushing carries out a relative movement with respect to the adjusting screw by turning the adjusting screw, wherein the bushing has a projection which engages in a receptacle, characterized in that the receptacle takes the form of a slot in which the projection engages, wherein, upon a movement of the projection along the slot, the rotary plate carries out the relative movement with respect to the holder.
Method for liquefaction of a gas flow containing at least 95% mol., even at least 99% mol. of carbon dioxide wherein: a) the supply gas flow is compressed in at least one first compression stage (3C, 3D), b) the compressed flow is cooled to partially condense it to produce a liquid flow, by being cooled in a first heat exchanger other than a second heat exchanger to partially condense it, the partially condensed flow is expanded and sent to a first phase separator, a liquid from the first phase separator is expanded then sent to a second phase separator and the liquid flow is extracted from the second phase separator, characterised in that: c) at least one part of the liquid flow is cooled in the tubes of the second heat exchanger which is a heat exchanger with tubes and a grille d) a first part of the liquid cooled in the second exchanger, is then expanded and is used as a liquid product e) a second part of the liquid cooled in the second exchanger is expanded in a valve (V4, V10) to bring the liquid to a temperature and a pressure close to the triple point of the cooled liquid and is vaporised in the grille of the second exchanger to form a vaporised flow and f) at least one part of the vaporised flow is compressed and mixed with the supply gas flow. a) the supply gas flow is compressed in at least one first compression stage (3C, 3D), b) the compressed flow is cooled to partially condense it to produce a liquid flow, by being cooled in a first heat exchanger other than a second heat exchanger to partially condense it, the partially condensed flow is expanded and sent to a first phase separator, a liquid from the first phase separator is expanded then sent to a second phase separator and the liquid flow is extracted from the second phase separator, characterised in that: c) at least one part of the liquid flow is cooled in the tubes of the second heat exchanger which is a heat exchanger with tubes and a grille d) a first part of the liquid cooled in the second exchanger, is then expanded and is used as a liquid product e) a second part of the liquid cooled in the second exchanger is expanded in a valve (V4, V10) to bring the liquid to a temperature and a pressure close to the triple point of the cooled liquid and is vaporised in the grille of the second exchanger to form a vaporised flow and f) at least one part of the vaporised flow is compressed and mixed with the supply gas flow.
A method performed by a wireless device in a wireless communication system, the method comprising: receiving, from a base station, a primary message associated with a public warning system, PWS, through system information block 10, SIB 10; transmitting, to the base station, a feedback message requesting a secondary message corresponding to the primary message by indicating a message identifier indicating a source and a type of the secondary message, wherein the secondary message is related to the PWS, and wherein the message identifier is an element included in one of system information block 11, SIB 11, or system information block 12, SIB 12; and receiving, from the base station, the secondary message through a system information message. receiving, from a base station, a primary message associated with a public warning system, PWS, through system information block 10, SIB 10; transmitting, to the base station, a feedback message requesting a secondary message corresponding to the primary message by indicating a message identifier indicating a source and a type of the secondary message, wherein the secondary message is related to the PWS, and wherein the message identifier is an element included in one of system information block 11, SIB 11, or system information block 12, SIB 12; and receiving, from the base station, the secondary message through a system information message.
A method of producing an amorphous silica material, comprising: preparing a batch comprising concrete, wherein the batch comprises at least one of a metal oxide comprising an iron oxide, a metal silicate, and a metal; melting the batch in a furnace to melt effluent; cooling the melt effluent to form amorphous silica particles, mass or product; and crushing the amorphous silica particles, mass or product to form glass particles. preparing a batch comprising concrete, wherein the batch comprises at least one of a metal oxide comprising an iron oxide, a metal silicate, and a metal; melting the batch in a furnace to melt effluent; cooling the melt effluent to form amorphous silica particles, mass or product; and crushing the amorphous silica particles, mass or product to form glass particles.
Method for producing a semiconductor component, said method comprising the following method steps of: - providing a semiconductor body which has a front, a back, an inner region, an edge, an edge region which is arranged between the inner region and the edge, a first semiconductor zone of a first conduction type in the inner region and edge region and at least one second semiconductor zone of a second conduction type that is complementary to the first conduction type, said second semiconductor zone being arranged in the inner region in the region of the front, - producing a connection electrode in the second semiconductor zone on the front of the semiconductor body, - irradiating the front with high-energy particles using the connection electrode as a mask in order to produce recombination centers (80A, 80B) below the connection electrode and adjacent to the connection electrode in the semiconductor body which are used to recombine charge carriers of the first and second conductor types, the recombination centres adjacent to the connection electrode being spaced further apart from the front then the recombination centres below the connection electrode. - providing a semiconductor body which has a front, a back, an inner region, an edge, an edge region which is arranged between the inner region and the edge, a first semiconductor zone of a first conduction type in the inner region and edge region and at least one second semiconductor zone of a second conduction type that is complementary to the first conduction type, said second semiconductor zone being arranged in the inner region in the region of the front, - producing a connection electrode in the second semiconductor zone on the front of the semiconductor body, - irradiating the front with high-energy particles using the connection electrode as a mask in order to produce recombination centers (80A, 80B) below the connection electrode and adjacent to the connection electrode in the semiconductor body which are used to recombine charge carriers of the first and second conductor types, the recombination centres adjacent to the connection electrode being spaced further apart from the front then the recombination centres below the connection electrode.
A vulcanized rubber composition, comprising: an elastomer, a filler, and a modified thermoplastic resin prepared by polymerization of one or more monomers, wherein the modified thermoplastic resin comprises less than or equal to 55 wt% oligomers by gel permeation chromatography, or less than or equal to 38 wt% by high resolution thermogravimetric analysis, wherein oligomers consist of dimers, trimers, tetramers, pentamers, or a mixture thereof, of the one or more monomers, wherein the modified thermoplastic resin has a glass transition temperature (Tg) of between -50 °C and 160 °C, wherein the number average molecular weight (Mn) of the modified thermoplastic resin is less than or equal to 1,000 g/mol, and/or wherein the z-average molecular weight (Mz) is less than or equal to 9,000 g/mol. an elastomer, a filler, and a modified thermoplastic resin prepared by polymerization of one or more monomers, wherein the modified thermoplastic resin comprises less than or equal to 55 wt% oligomers by gel permeation chromatography, or less than or equal to 38 wt% by high resolution thermogravimetric analysis, wherein oligomers consist of dimers, trimers, tetramers, pentamers, or a mixture thereof, of the one or more monomers, wherein the modified thermoplastic resin has a glass transition temperature (Tg) of between -50 °C and 160 °C, wherein the number average molecular weight (Mn) of the modified thermoplastic resin is less than or equal to 1,000 g/mol, and/or wherein the z-average molecular weight (Mz) is less than or equal to 9,000 g/mol.