mhurhangee/ep-ind-claims huggingface dataset:
A calibration method for a rotation angle calculation device (20, 30) configured to calculate a rotation angle of a rotating body, based on a detection signal output from a sensor depending on rotation of the rotating body, the method comprising: the rotation angle calculation device (20, 30) calculating a rotation angle of the rotating body, based on the detection signal; transmitting rotation angle data indicating the rotation angle from the rotation angle calculation device (20, 30) to a calibration device; obtaining a capture time that is a time when the detection signal has been captured from the sensor; generating time difference data relating to a time difference after having captured the detection signal from the sensor until transmitting the rotation angle data on the basis of the capture time; transmitting the time difference data from the rotation angle calculation device (20, 30) to the calibration device; the calibration device measuring a rotation angle of the rotating body; clocking a measurement time at which the calibration device measures a rotation angle of the rotating body and a transmission time at which the rotation angle data are transmitted or received, using the calibration device; and acquiring calibration data of the rotation angle data by comparing a rotation angle of the rotating body measured by the calibration device at a time obtained by going back in time from the transmission time by the time difference and the rotation angle data with each other. the rotation angle calculation device (20, 30) calculating a rotation angle of the rotating body, based on the detection signal; transmitting rotation angle data indicating the rotation angle from the rotation angle calculation device (20, 30) to a calibration device; obtaining a capture time that is a time when the detection signal has been captured from the sensor; generating time difference data relating to a time difference after having captured the detection signal from the sensor until transmitting the rotation angle data on the basis of the capture time; transmitting the time difference data from the rotation angle calculation device (20, 30) to the calibration device; the calibration device measuring a rotation angle of the rotating body; clocking a measurement time at which the calibration device measures a rotation angle of the rotating body and a transmission time at which the rotation angle data are transmitted or received, using the calibration device; and acquiring calibration data of the rotation angle data by comparing a rotation angle of the rotating body measured by the calibration device at a time obtained by going back in time from the transmission time by the time difference and the rotation angle data with each other.
A base station apparatus comprising: a transmitting section configured to transmit, to a mobile station, a downlink control channel on one or more control channel element(s), CCE(s), having consecutive CCE number(s) in a search space that is comprised of a plurality of CCEs corresponding to a plurality of downlink control channel candidates to be attempted to be decoded by the mobile station; and a receiving section configured to receive a response signal, which is transmitted from the mobile station on a uplink control channel, an index of which is associated with a CCE number of the one or more CCE(s), on which the downlink control channel is transmitted, characterized in that: the search space for each aggregation size corresponding to a number of the one or more CCE(s), on which the downlink control channel is transmitted, is defined by both a number of the plurality of CCEs and a starting CCE number of the search space, the number of the plurality of CCEs in a subframe and the starting CCE number being specific to the aggregation size. a transmitting section configured to transmit, to a mobile station, a downlink control channel on one or more control channel element(s), CCE(s), having consecutive CCE number(s) in a search space that is comprised of a plurality of CCEs corresponding to a plurality of downlink control channel candidates to be attempted to be decoded by the mobile station; and a receiving section configured to receive a response signal, which is transmitted from the mobile station on a uplink control channel, an index of which is associated with a CCE number of the one or more CCE(s), on which the downlink control channel is transmitted, the search space for each aggregation size corresponding to a number of the one or more CCE(s), on which the downlink control channel is transmitted, is defined by both a number of the plurality of CCEs and a starting CCE number of the search space, the number of the plurality of CCEs in a subframe and the starting CCE number being specific to the aggregation size.
Method for producing at least one light-emitting or light-receiving diode, comprising at least: - producing, on a first substrate, at least one stack comprising first and second semiconductor layers (106, 114) doped with opposite conductivity types, and at least one third intrinsic semiconductor layer disposed between the first and second layers (106, 114), the first layer being disposed between the first substrate and the third layer; - etching trenches passing through the second and third layers (114, 112) and a first part of the first layer, surrounding remaining portions (126, 128, 130) of the second and third layers (114, 112) and of the first part of the first layer, and such that the bottom of the trenches is formed by a second part of the first layer disposed between the first part of the first layer and the first substrate; - producing, in the trenches, at least one dielectric spacer covering side walls of said remaining portions (126, 128, 130); - etching extending the trenches through portions of the second part of the first layer not covered with the dielectric spacer, up to the first substrate; - laterally etching a part of the dielectric spacer, revealing contact surfaces of the second part of the first layer; - producing, in the trenches, at least one first electrode in contact with the contact surfaces of the second part of the first layer and with side flanks of the second part of the first layer. - producing, on a first substrate, at least one stack comprising first and second semiconductor layers (106, 114) doped with opposite conductivity types, and at least one third intrinsic semiconductor layer disposed between the first and second layers (106, 114), the first layer being disposed between the first substrate and the third layer; - etching trenches passing through the second and third layers (114, 112) and a first part of the first layer, surrounding remaining portions (126, 128, 130) of the second and third layers (114, 112) and of the first part of the first layer, and such that the bottom of the trenches is formed by a second part of the first layer disposed between the first part of the first layer and the first substrate; - producing, in the trenches, at least one dielectric spacer covering side walls of said remaining portions (126, 128, 130); - etching extending the trenches through portions of the second part of the first layer not covered with the dielectric spacer, up to the first substrate; - laterally etching a part of the dielectric spacer, revealing contact surfaces of the second part of the first layer; - producing, in the trenches, at least one first electrode in contact with the contact surfaces of the second part of the first layer and with side flanks of the second part of the first layer.
A nanoparticle comprising: a) an inner core comprising a non-cellular material; and b) an outer surface comprising a plasma membrane or an intracellular membrane derived from a human or animal cell or a plasma membrane derived from a bacterium, wherein said inner core supports said outer surface, and said inner core comprises a biocompatible or a synthetic material selected from the group consisting of poly(lactic-co-glycolic acid) (PLGA), polylactic acid, polyglycolic acid, polycaprolactone, polylysine, and polyglutamic acid. a) an inner core comprising a non-cellular material; and b) an outer surface comprising a plasma membrane or an intracellular membrane derived from a human or animal cell or a plasma membrane derived from a bacterium,
A method for providing a content to be rendered at a client device comprising at least a first and a second communication interfaces (CI1, CI2), wherein said at least first and second communication interfaces (CI1, CI2) having each a communication address, said content being accessible to the client device via at least a first and a second server communication interfaces (SI1, SI2) having each a communication address, a first path being identified by the communication address of said first communication interface and by the address of the first server communication interface, at least a second path being identified by the communication address of said second communication interface and by the address of the at least second server communication interface, said content being available under at least two versions having an encoding quality corresponding to a supported bit rate (BRA, BRB) constraint, each of said at least two versions being temporally split into chunks corresponding to an identical rendered duration of the content, a chunk being identified by a time index i and by one of the supported bit rate (BRA, BRB), said content being simultaneously accessible by said client device through said first and said at least second paths (P1, P2), characterized in that it comprises, at the client device, steps of: - measuring a first available bit rate on the first path and at least second available bit rate on the at least second path; - determining a requested bit rate among the supported bit rate (BRA, BRB) from the measured first available bit rate and from the measured at least second available bit rate; - sending a first request via the first path for receiving a first part of the chunk identified by the time index i and the determined requested bit rate and sending at least a second request via the at least second path for receiving at least a second part of said chunk identified by the time index i, said parts of said identified chunk being complementary, each of said parts of the identified chunk having a size being computed from the measured available bit rates (BR1, BR2); - receiving the requested first part via the first path and the requested at least second part via the at least second path. - measuring a first available bit rate on the first path and at least second available bit rate on the at least second path; - determining a requested bit rate among the supported bit rate (BRA, BRB) from the measured first available bit rate and from the measured at least second available bit rate; - sending a first request via the first path for receiving a first part of the chunk identified by the time index i and the determined requested bit rate and sending at least a second request via the at least second path for receiving at least a second part of said chunk identified by the time index i, said parts of said identified chunk being complementary, each of said parts of the identified chunk having a size being computed from the measured available bit rates (BR1, BR2); - receiving the requested first part via the first path and the requested at least second part via the at least second path.
A metal-metal interdigitated photoconductive antenna that generates and/or detects terahertz waves, the photoconductive antenna comprising at least one substrate (1,12) made of a compound semiconductor and interdigitated electrodes on the front face of the substrate, characterized in that: - it comprises at least one layer formed of a material reflective to terahertz waves, said layer extending below the front face of the substrate at a distance d = λ /2 where λ corresponds to the maximum frequency that needs to be emitted/detected; and - it comprises an interdigitated geometry on said front face of the substrate (1,12) comprising: o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes, said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate (1,12); o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ. - it comprises at least one layer formed of a material reflective to terahertz waves, said layer extending below the front face of the substrate at a distance d = λ /2 where λ corresponds to the maximum frequency that needs to be emitted/detected; and - it comprises an interdigitated geometry on said front face of the substrate (1,12) comprising: o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes, said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate (1,12); o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ. o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes, said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate (1,12); o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ.
A radiation-curable inkjet ink or coating composition comprising: a) one or more acrylic polymers in an amount of greater than 12 wt% based on the total weight of the ink or coating; and b) one or more multifunctional monomers having two or more polymerizable groups per molecule; wherein at least one multifunctional monomer is a hybrid monomer containing two or more different polymerizable groups per molecule; wherein the composition contains greater than or equal to 40 wt% of polymerizable monomers based on the total weight of the ink or coating; and wherein the radiation-curable inkjet ink or coating composition is not either of example 11 or example 12 of WO2016/178989 A1. a) one or more acrylic polymers in an amount of greater than 12 wt% based on the total weight of the ink or coating; and b) one or more multifunctional monomers having two or more polymerizable groups per molecule; wherein at least one multifunctional monomer is a hybrid monomer containing two or more different polymerizable groups per molecule; wherein the composition contains greater than or equal to 40 wt% of polymerizable monomers based on the total weight of the ink or coating; and wherein the radiation-curable inkjet ink or coating composition is not either of example 11 or example 12 of WO2016/178989 A1.
A system of load-bearing elements of frameworks and fixed and moveable frames of indoor and outdoor all-glass doors, windows, fixed or movable glass panels or curtain walls in civil and/or industrial and/or commercial and/or religious contexts, said system being characterized in that it comprises a transparent structure with sides formed by a profile or composition of profiles (12, 14, 32, 34, 57) defining an open conformation, said profiles consisting of glass or another transparent material, as single material in monolithic form, in non-monolithic form or multiple materials, the profile or composition of profiles extending longitudinally and forming said load-bearing elements in form of upright and transverse beams of said transparent frames structure of said fixed and moveable frames for doors and windows or curtain walls, wherein the profiles have an L-shaped cross-section to define a substantially U-shaped profile when joined together, or have a U-shaped section, said profiles having the same or different cross-sectional perimeter dimensions so as to give rise to different geometric and/or dimensional configurations of jambs-stiles/heads-rails said profiles being assembled to define an inner volume and suitable for containing-actuation means for opening/closing doors or windows or glass partitions and/or for integrating and/or containing electric/electronic devices for comfort and security, interactivity with the user and aesthetic character, such as video cameras, displays, sensors, probes, presence detecting devices suitable for activating security systems, lighting sources, photovoltaic devices, touch-screen devices, circuits or heating/cooling devices, said transparent structure formed of said profile or composition of profiles (12, 14, 32, 34, 57) being apt to eliminate visible parts in metal or opaque material so as to define a monobloc with the glazing of the door or window or façade when connected to said glazing.
A cell that expresses a GDP-4-keto-6-deoxy-mannose-3,5-epimerase-4-reductase protein with a modification, wherein the FX protein modification comprises the amino acid substitution 289S and at least one further modification selected from the group consisting of the following amino acid substitutions: 90K, 211R, 136L, and 79S, wherein the cell also expresses a glycoprotein and wherein the FX protein modification results in at least a 90% reduction in the cell's ability to fucosylate the glycoprotein in comparison to a cell that lacks the modification.
A photoresist composition comprising a polymeric binder, a photoactive component, a photoresist strip enhancer and optionally a cross-linking agent, wherein the photoresist strip enhancer is non-polymerizable with the polymeric binder, optional cross-linking agent or both and is selected from alpha-trichloromethyl benzyl acetate, alpha-tribromomethyl benzyl acetate, alpha-triiodomethyl benzyl acetate, trichloromethyl allyl acetate, tribromomethyl allyl acetate, alpha-trichloromethyl benzyl propionate, alpha-tribromomethyl benzyl propionate, alpha-triiodomethyl benzyl propionate, trichloromethyl allyl propionate, tribromomethyl allyl propionate, alpha-trichloromethyl benzyl benzoate, alpha-tribromomethyl benzyl benzoate, alpha-triiodomethyl benzyl benzoate, trichloromethyl allyl benzoate, tribromomethyl allyl benzoate or alphabromodichloromethyl benzyl acetate.
Low voltage circuit breaker comprising a first case housing at least one fixed contact and a corresponding movable contact engageable with and disengageable from said fixed contact between a first closed position and a second open position, an actuating mechanism operatively associated with said movable contact, at least a first and a second connection terminal electrically connected respectively to said fixed contact and to said movable contact, an arc chamber, positioned between said fixed contact and a conducting element having a first end electrically connected to said second connection terminal and a second end terminating with a bottom side, said arc chamber comprising a plurality of shaped conducting plates interposed between said fixed contact and the second end of said conducting element characterized in that a body comprising a second insulating case which encloses an element made of ferromagnetic material is positioned adjacent to said plurality of shaped conducting plates, on a top side of at least some of said shaped conducting plates, said body defining a space for passage of said movable contact during movement thereof between said first closed position and second open position.
A display screen assembly, comprising: a display screen, comprising a display region for displaying images and a non-display region surrounding the display region; a light conducting member facing the display region; at least two first light sources facing at least one surface of the light conducting member, wherein the at least two first light sources are each configured to emit a detection signal to the light conducting member, and the light conducting member is configured to diffuse the detection signal to allow the detection signal to pass through the display region, to interact with a detection object to form a target signal; a plurality of second light sources, wherein one or more of the plurality of second light sources are located between two adjacent first light sources, and the second light sources are configured to provide backlight for the display screen assembly; a receiving element disposed in the display region and configured to receive the target signal, the receiving element and the at least two first light sources being disposed at different planes; and a processor electrically coupled with the at least two first light sources and the receiving element, wherein the processor is configured to detect a distance between the display region and the detection object according to one of an intensity of the target signal and a difference between a transmission time of the detection signal and a reception time of the target signal. a display screen, comprising a display region for displaying images and a non-display region surrounding the display region; a light conducting member facing the display region; at least two first light sources facing at least one surface of the light conducting member, wherein the at least two first light sources are each configured to emit a detection signal to the light conducting member, and the light conducting member is configured to diffuse the detection signal to allow the detection signal to pass through the display region, to interact with a detection object to form a target signal; a plurality of second light sources, wherein one or more of the plurality of second light sources are located between two adjacent first light sources, and the second light sources are configured to provide backlight for the display screen assembly; a receiving element disposed in the display region and configured to receive the target signal, the receiving element and the at least two first light sources being disposed at different planes; and a processor electrically coupled with the at least two first light sources and the receiving element, wherein the processor is configured to detect a distance between the display region and the detection object according to one of an intensity of the target signal and a difference between a transmission time of the detection signal and a reception time of the target signal.
A fuse production method comprising the steps of: forming a liquid film of a dispersion liquid, in which metal nanoparticles are dispersed in a solvent, on a principal surface of a substrate containing at least an organic substance; heating the liquid film so as to vaporize the solvent to melt or sinter the metal nanoparticles and to soften or melt the principal surface; and forming a fuse film on the principal surface by fusing the melted or sintered metal nanoparticles and the softened or melted principal surface with each other. forming a liquid film of a dispersion liquid, in which metal nanoparticles are dispersed in a solvent, on a principal surface of a substrate containing at least an organic substance; heating the liquid film so as to vaporize the solvent to melt or sinter the metal nanoparticles and to soften or melt the principal surface; and forming a fuse film on the principal surface by fusing the melted or sintered metal nanoparticles and the softened or melted principal surface with each other.