mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a lighting system with a geometrical time signalling effect; the method comprises providing a lamp with a lighting area and arranging the lamp so that the lighting area is visible from a region in surroundings of the lamp, the lighting area comprising a disc-shaped part and a ring-shaped part, where the light emitted from both the disc-shaped part and the ring-shaped part is directed into the same region from the same side of the lamp and the disc-shaped part and the ring-shaped part are both visible and mutually visually distinguishable from the region; wherein the lighting area comprises a first light source producing a first type of white light and a second light source producing a second type of white light; wherein the method comprises periodically shifting between emission of the first type of white light and emission of the second type of white light, and producing light from the disc-shaped part and the ring-shaped part so that they are concentric; characterised in that the first type of white light produced by the first light source has a spectrum in which more than 30% of the spectral energy content relates to wavelengths in the range between 380 and 520 nm, and the second type of white light produced by the second light source has a spectrum in which less than 5% of the spectral energy content relates to wavelengths shorter than 520 nm; where the first type of white light is emitted from a disc-shaped part of the lighting area and the second type of white light is emitted from a ring-shaped part of the lighting area; wherein the light emitted from the disc-shaped part is signalling daytime and the light emitted from the ring-shaped part is signalling night-time to a person in the region, and wherein the disc-shaped part has an outer diameter D 1, and the ring-shaped part has an inner diameter D2 and an outer diameter D3, wherein D1 and D3 are in the range of 0.2 and 3 m, and wherein D2 is at least 0.1 m, and wherein D1 is approximately equal to D3, and D2 larger than half of D1.
A method, implemented by an apparatus, for setting a fingerprint sensor interrupt threshold, comprising: obtaining a measured background noise value of a wakeup region on a fingerprint sensor in a terminal device, wherein the wakeup region is a region for detecting whether the fingerprint sensor is touched; adding a preset safety margin to the background noise value, to obtain a first threshold; and determining, according to the first threshold and a preset safety value, an interrupt threshold for the fingerprint sensor to generate an interrupt signal, wherein the interrupt threshold is used to instruct the fingerprint sensor to generate an interrupt signal, so as to wake up a central processing unit, CPU, of the terminal device, and the safety value is used to prevent the fingerprint sensor from erroneously triggering an interrupt signal to wake up the CPU. obtaining a measured background noise value of a wakeup region on a fingerprint sensor in a terminal device, wherein the wakeup region is a region for detecting whether the fingerprint sensor is touched; adding a preset safety margin to the background noise value, to obtain a first threshold; and determining, according to the first threshold and a preset safety value, an interrupt threshold for the fingerprint sensor to generate an interrupt signal, wherein the interrupt threshold is used to instruct the fingerprint sensor to generate an interrupt signal, so as to wake up a central processing unit, CPU, of the terminal device, and the safety value is used to prevent the fingerprint sensor from erroneously triggering an interrupt signal to wake up the CPU.
Method for producing at least one semiconductor component set, comprising the steps: - producing a plurality of semiconductor components (1, 5) on a substrate, - testing the individual semiconductor components (1, 5) to detect operational semiconductor components, - assembling at least one semiconductor component set, which set consists of a plurality of operational semiconductor components and which forms a coherent flat structure; - electrically connecting the operative semiconductor components of the semiconductor component set in parallel, characterised by - assembling the semiconductor component set in such a way that the coherent flat structure, after the release thereof from the substrate, is mechanically stable, in that selected defective semiconductor components are added to the coherent flat structure. - producing a plurality of semiconductor components (1, 5) on a substrate, - testing the individual semiconductor components (1, 5) to detect operational semiconductor components, - assembling at least one semiconductor component set, which set consists of a plurality of operational semiconductor components and which forms a coherent flat structure; - electrically connecting the operative semiconductor components of the semiconductor component set in parallel, - assembling the semiconductor component set in such a way that the coherent flat structure, after the release thereof from the substrate, is mechanically stable, in that selected defective semiconductor components are added to the coherent flat structure.
Optical transmitter comprising: a source of coherent light, preferably a laser or laser diode; an input terminal adapted to receive a radio frequency signal and coupled to drive the source of coherent light with the radio frequency signal; an optical modulator coupled to modulate a phase of the coherent light, an integrating element having a transfer characteristic to cancel chirp introduced by the source of coherent light and coupled to receive a portion of the radio frequency signal from the input terminal, and a delay circuit coupled to an output terminal of the integrating element and having an output terminal coupled to control the optical modulator, wherein the integrating element and the delay element are adapted to change a phase of the portion of the radio frequency signal by approximately 180° to cancel or reduce, in conjunction with the optical modulator, the chirp introduced by the source of coherent light. a source of coherent light, preferably a laser or laser diode; an input terminal adapted to receive a radio frequency signal and coupled to drive the source of coherent light with the radio frequency signal; an optical modulator coupled to modulate a phase of the coherent light, an integrating element having a transfer characteristic to cancel chirp introduced by the source of coherent light and coupled to receive a portion of the radio frequency signal from the input terminal, and a delay circuit coupled to an output terminal of the integrating element and having an output terminal coupled to control the optical modulator, wherein the integrating element and the delay element are adapted to change a phase of the portion of the radio frequency signal by approximately 180° to cancel or reduce, in conjunction with the optical modulator, the chirp introduced by the source of coherent light.
A method of storing semi-structured data comprising: identifying common data elements from within the semi-structured data elements based on a statistical analysis of the semi-structured data elements; assigning the common data elements into one of a first class of data and a second class of data using at least a threshold of commonality, wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data, the first class data comprises reoccurring common data elements, and the second class data comprises less occurring common data elements; storing the common data elements from the first class of data into separate pseudo-columns in cache memory; and storing the second class of data in disk storage, wherein metadata and statistics corresponding to the pseudo-columns of the stored first class of data are made available to a computer based query generator. identifying common data elements from within the semi-structured data elements based on a statistical analysis of the semi-structured data elements; assigning the common data elements into one of a first class of data and a second class of data using at least a threshold of commonality, wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data, the first class data comprises reoccurring common data elements, and the second class data comprises less occurring common data elements; storing the common data elements from the first class of data into separate pseudo-columns in cache memory; and storing the second class of data in disk storage, wherein metadata and statistics corresponding to the pseudo-columns of the stored first class of data are made available to a computer based query generator.
A joint-spacing balloon catheter comprising: a shaft having a distal end and a proximal end; a handle attached to the proximal end of the shaft; and a first balloon attached to the distal end of the shaft, characterised in that the joint-spacing balloon catheter further comprises a second balloon attached to the distal end of the shaft, the first balloon being attached distal to, and spaced from, the second balloon, so that a portion of the shaft extends between the first balloon and the second balloon, the first balloon and the second balloon being capable of supporting opposing bones of a previously-distracted joint when the distraction force is reduced. a shaft having a distal end and a proximal end; a handle attached to the proximal end of the shaft; and a first balloon attached to the distal end of the shaft, characterised in that the joint-spacing balloon catheter further comprises a second balloon attached to the distal end of the shaft, the first balloon being attached distal to, and spaced from, the second balloon, so that a portion of the shaft extends between the first balloon and the second balloon, the first balloon and the second balloon being capable of supporting opposing bones of a previously-distracted joint when the distraction force is reduced.
A display device, comprising: a substrate comprising a display region and non-display region; at least one pixel disposed in the display region, wherein the at least one pixel comprises an emission region that emits a light, a non-emission region (NEMA) that does not emit the light, a light emitting element (OLED) disposed in the emission region, and a pixel circuit that drives the light emitting element (OLED); a passivation layer disposed between the pixel circuit and the light emitting element (OLED), wherein the passivation layer covers the pixel circuit and comprises a concave pattern disposed in the non-emission region (NEMA), wherein the concave pattern has a recessed shape in a direction from the upper surface of the passivation layer toward the lower surface of the passivation layer; and a power supply line disposed on the passivation layer in the non-emission region (NEMA) and connected to the light emitting element (OLED), wherein the power supply line is light reflective and comprises an uneven pattern corresponding to the concave pattern characterized in that the concave pattern comprises a plurality of concave portions and light incident on the display device from outside is irregularly reflected by the uneven pattern of the power supply line in the non-emission region (NEMA), wherein irregular reflection of an external light generated in the non-emission region (NEMA) is canceled by destructive interference with reflection of an external light generated in the emission region. a substrate comprising a display region and non-display region; at least one pixel disposed in the display region, wherein the at least one pixel comprises an emission region that emits a light, a non-emission region (NEMA) that does not emit the light, a light emitting element (OLED) disposed in the emission region, and a pixel circuit that drives the light emitting element (OLED); a passivation layer disposed between the pixel circuit and the light emitting element (OLED), wherein the passivation layer covers the pixel circuit and comprises a concave pattern disposed in the non-emission region (NEMA), wherein the concave pattern has a recessed shape in a direction from the upper surface of the passivation layer toward the lower surface of the passivation layer; and a power supply line disposed on the passivation layer in the non-emission region (NEMA) and connected to the light emitting element (OLED), wherein the power supply line is light reflective and comprises an uneven pattern corresponding to the concave pattern characterized in that the concave pattern comprises a plurality of concave portions and light incident on the display device from outside is irregularly reflected by the uneven pattern of the power supply line in the non-emission region (NEMA), wherein irregular reflection of an external light generated in the non-emission region (NEMA) is canceled by destructive interference with reflection of an external light generated in the emission region.
Composition in the form of an injectable aqueous solution, the pH of which is between 7.2 and 8.0 (7.2 ≤ pH ≤ 8.0) comprising at least A21G human insulin.
A method for simultaneously generating a plurality of holes in workpieces in form of thin plates and substrates of glass, glass-like materials, glass ceramics and semiconductors, characterized by the steps of: a) providing the workpiece to be perforated which is at least partially transparent in a range of wavelengths between 3000 and 200 nm; b) aligning a multi laser beam array emitting laser beams with predetermined or prepared perforation points of the workpiece according to a predetermined pitch; c) triggering focused laser pulses in a range of wavelengths between 3000 and 200 nm towards the workpiece, with a radiation intensity that causes local non-thermal destruction of the workpiece material along a respective filamentary channel for preparing the holes in the workpiece; d) expanding the filamentary channels to a desired diameter and forming the holes by applying electrical energy so as to form the holes in the workpiece by heating and melting/evaporating of material along the filamentary channels. a) providing the workpiece to be perforated which is at least partially transparent in a range of wavelengths between 3000 and 200 nm; b) aligning a multi laser beam array emitting laser beams with predetermined or prepared perforation points of the workpiece according to a predetermined pitch; c) triggering focused laser pulses in a range of wavelengths between 3000 and 200 nm towards the workpiece, with a radiation intensity that causes local non-thermal destruction of the workpiece material along a respective filamentary channel for preparing the holes in the workpiece; d) expanding the filamentary channels to a desired diameter and forming the holes by applying electrical energy so as to form the holes in the workpiece by heating and melting/evaporating of material along the filamentary channels.
A fall-prevention device (10, 10'), comprising: - an attachment element able to be attached to an equipment item of a user, and a first anchoring element able to be attached to an anchor point; - a lanyard extending between the first anchoring element and the attachment element and comprising a main section and a backup section, the backup section being closer to the attachment element than to the first anchoring element; - an energy absorber attached to the backup section and configured to at least partially absorb the energy generated by a fall of the user, the backup section and the main section extending in continuity with one another, so that the lanyard forms a single and unique piece which extends between a first end attached to the attachment element and a second end attached to the anchoring element without discontinuity, the energy absorber being a tear-away strap comprising two portions attached to one another along their entire length, except at one end (131, 132) of each of them, said end of each of the two portions being respectively attached to a first and a second attachment position (P1, P2) distinct from one another along the backup section, the two portions of the tear-away strap being configured to separate from one another in the event the user falls, characterized in that a first end of the lanyard is folded over and sewn onto a first end of the tear-away strap, which in turn is sewn onto the backup section at the first attachment position, such that the first end of the tear-away strap and the first end of the lanyard are sewn together at the backup section via a first seam. - an attachment element able to be attached to an equipment item of a user, and a first anchoring element able to be attached to an anchor point; - a lanyard extending between the first anchoring element and the attachment element and comprising a main section and a backup section, the backup section being closer to the attachment element than to the first anchoring element; - an energy absorber attached to the backup section and configured to at least partially absorb the energy generated by a fall of the user, the backup section and the main section extending in continuity with one another, so that the lanyard forms a single and unique piece which extends between a first end attached to the attachment element and a second end attached to the anchoring element without discontinuity,
A push apparatus attachment device comprising: a frame connecter for connecting to a push apparatus frame; a height-adjustment frame connected to the frame connector; and a pivot assembly structured and configured to be gripped by a user's hands, the pivot assembly including: a swing bar connected to the height-adjustment frame, and a grip bridge connected to the swing bar, characterized in the grip bridge having at least two hand grips on opposing ends of the grip bridge, wherein the grip bridge is further comprised of hand grip apertures on opposing ends of the grip bridge, and each hand grip is positioned in one of the hand grip apertures. a frame connecter for connecting to a push apparatus frame; a height-adjustment frame connected to the frame connector; and a pivot assembly structured and configured to be gripped by a user's hands, the pivot assembly including: a swing bar connected to the height-adjustment frame, and a grip bridge connected to the swing bar, characterized in the grip bridge having at least two hand grips on opposing ends of the grip bridge, wherein the grip bridge is further comprised of hand grip apertures on opposing ends of the grip bridge, and each hand grip is positioned in one of the hand grip apertures. a swing bar connected to the height-adjustment frame, and a grip bridge connected to the swing bar, characterized in the grip bridge having at least two hand grips on opposing ends of the grip bridge, wherein the grip bridge is further comprised of hand grip apertures on opposing ends of the grip bridge, and each hand grip is positioned in one of the hand grip apertures. the grip bridge is further comprised of hand grip apertures on opposing ends of the grip bridge, and each hand grip is positioned in one of the hand grip apertures.
Device for microwave measurement of a dielectric discontinuity of a material to be inspected, said device comprising a launcher for waveguide, a waveguide and a receiving antenna, wherein: - the launcher is configured to emit in the waveguide a microwave electromagnetic field adapted to interact with the material to be inspected; - the receiving antenna is configured to receive an electromagnetic field reflected by the material, said reflected electromagnetic field containing information correlated with a dielectric discontinuity of said material; - the waveguide is configured to: • propagate the emitted electromagnetic field towards the material; • convey the reflected electromagnetic field towards the receiving antenna; said waveguide having an inspection seat configured for the insertion of at least one portion of the material, wherein the inspection seat is a hole in a wall of the waveguide, and wherein at least one of either the launcher or the receiving antenna is movable in a plurality of positions around the inspection seat. - the launcher is configured to emit in the waveguide a microwave electromagnetic field adapted to interact with the material to be inspected; - the receiving antenna is configured to receive an electromagnetic field reflected by the material, said reflected electromagnetic field containing information correlated with a dielectric discontinuity of said material; - the waveguide is configured to: • propagate the emitted electromagnetic field towards the material; • convey the reflected electromagnetic field towards the receiving antenna; • propagate the emitted electromagnetic field towards the material; • convey the reflected electromagnetic field towards the receiving antenna; said waveguide having an inspection seat configured for the insertion of at least one portion of the material, wherein the inspection seat is a hole in a wall of the waveguide, and wherein at least one of either the launcher or the receiving antenna is movable in a plurality of positions around the inspection seat.
A method of detecting hypomethylated β cell insulin DNA in a biological sample of a subject, the method comprising: determining the methylation status of at least one of the CpG dinucleotides in the β cell insulin DNA present in the biological sample of the subject, wherein the biological sample is a serum sample that has been obtained from outside the subject's pancreas, and wherein when at least one of the CpG dinucleotides in the β cell insulin DNA is determined to be unmethylated, the hypomethylated β cell insulin DNA is detected. determining the methylation status of at least one of the CpG dinucleotides in the β cell insulin DNA present in the biological sample of the subject, wherein the biological sample is a serum sample that has been obtained from outside the subject's pancreas, and wherein when at least one of the CpG dinucleotides in the β cell insulin DNA is determined to be unmethylated, the hypomethylated β cell insulin DNA is detected.