mhurhangee/patent-ind-claim-en huggingface dataset:
A data transfer method operational on at least one of two devices in a terminal, the two devices communicatively coupled through a communication link , said communication link configurable for compatibility with a plurality of physical interface standards, the method comprising: determining a physical interface standard to be used for communicating between the two devices , wherein the physical interface standard is one of physical interface standards supported by at least one of the two devices ; selecting an encoder from a plurality of encoders available to at least one of the two devices to generate encoded data consistent with the physical interface standard to be used for communicating between the two devices ; and configuring a plurality of drivers to receive the encoded data from the encoder and to drive a plurality of connectors communicatively coupling the two devices in accordance with the physical interface standard to be used for communicating between the two devices, wherein the encoder is selected from the plurality of encoders that includes a first encoder configured to provide the encoded data in differentially encoded signals and a second encoder that is an N-phase encoder configured to encode data in a sequence of symbols using a combination of a phase state of a first pair of the plurality of connectors, a polarity of a second pair of the plurality of connectors, and a selection of at least one undriven connector. determining a physical interface standard to be used for communicating between the two devices , wherein the physical interface standard is one of physical interface standards supported by at least one of the two devices ; selecting an encoder from a plurality of encoders available to at least one of the two devices to generate encoded data consistent with the physical interface standard to be used for communicating between the two devices ; and configuring a plurality of drivers to receive the encoded data from the encoder and to drive a plurality of connectors communicatively coupling the two devices in accordance with the physical interface standard to be used for communicating between the two devices, wherein the encoder is selected from the plurality of encoders that includes a first encoder configured to provide the encoded data in differentially encoded signals and a second encoder that is an N-phase encoder configured to encode data in a sequence of symbols using a combination of a phase state of a first pair of the plurality of connectors, a polarity of a second pair of the plurality of connectors, and a selection of at least one undriven connector.
Loudspeaker box comprising a housing , a loudspeaker arranged in the housing for generating sound and a sound-guiding device , wherein the sound-guiding device is arranged in front of the loudspeaker in a sound propagation direction , wherein the sound-guiding device is configured in such a way that the sound-guiding device directs the sound generated by the loudspeaker to a front slot arranged on a front side of the sound-guiding device for the purpose of sound radiation, wherein the sound-guiding device has a rear side facing the loudspeaker and having a rear surface , characterized in that the rear surface of the rear side of the sound-guiding device facing the loudspeaker is formed in the form of a negative impression of the loudspeaker and/or of a loudspeaker diaphragm apart from the region of rear slots, and at least one edge of the front side of the sound-guiding device is rounded with a radius of between 5 mm and 30 mm. wherein the sound-guiding device is configured in such a way that the sound-guiding device directs the sound generated by the loudspeaker to a front slot arranged on a front side of the sound-guiding device for the purpose of sound radiation, wherein the sound-guiding device has a rear side facing the loudspeaker and having a rear surface , characterized in that the rear surface of the rear side of the sound-guiding device facing the loudspeaker is formed in the form of a negative impression of the loudspeaker and/or of a loudspeaker diaphragm apart from the region of rear slots, and at least one edge of the front side of the sound-guiding device is rounded with a radius of between 5 mm and 30 mm.
A compound of the formula (I): wherein R 1 is chosen from wherein R 6 is H or CH 3 and; R 7 is H, NH 2 , -NH-C 1-4 alkyl or -NH-C 3-4 cycloalkyl, or -NH-Heterocycle R 2 is chosen from H, F, Cl, CH 3 , or CH 2 OH; R 3 is chosen from; wherein Y is CN, R 4 is chosen from H, F, Cl or OMe each R 5 is independently chosen from H, C 1-4 alkyl, or C 3-4 cycloalkyl; each group defined above for R 1 -R 5 is, where possible, partially or fully halogentated; or a pharmaceutically acceptable salt or hydrate thereof. wherein R 1 is chosen from wherein R 6 is H or CH 3 and; R 7 is H, NH 2 , -NH-C 1-4 alkyl or -NH-C 3-4 cycloalkyl, or -NH-Heterocycle R 2 is chosen from H, F, Cl, CH 3 , or CH 2 OH; R 3 is chosen from; wherein Y is CN, R 4 is chosen from H, F, Cl or OMe each R 5 is independently chosen from H, C 1-4 alkyl, or C 3-4 cycloalkyl; each group defined above for R 1 -R 5 is, where possible, partially or fully halogentated; or a pharmaceutically acceptable salt or hydrate thereof.
An aircraft propulsor comprising: an engine; a plurality of electrical components (220A-C) configured to determine a parameter associated with the engine; a flexible band comprising a at least one electrical component opening (232A-C), wherein the electrical component opening (232A-C)is configured to receive one or more of the electrical components (220A-C), and wherein the flexible band is configured to surround at least a portion of the engine; a band coupler configured to couple together at least two portions of the flexible band ; and a nacelle configured to surround the engine and the flexible band . an engine; a plurality of electrical components (220A-C) configured to determine a parameter associated with the engine; a flexible band comprising a at least one electrical component opening (232A-C), wherein the electrical component opening (232A-C)is configured to receive one or more of the electrical components (220A-C), and wherein the flexible band is configured to surround at least a portion of the engine; a band coupler configured to couple together at least two portions of the flexible band ; and a nacelle configured to surround the engine and the flexible band .
A solid state thin film electrochemical device comprising: at least one electrode; and, an electrolyte deposited on the electrode, characterised in that the electrolyte includes at least two layers, one of the at least two layers being a first dense layer and a second of the at least two layers being a second porous layer consisting of the same material as the first dense layer. at least one electrode; and, an electrolyte deposited on the electrode, characterised in that the electrolyte includes at least two layers, one of the at least two layers being a first dense layer and a second of the at least two layers being a second porous layer consisting of the same material as the first dense layer.
Tap cartridge with cable routing for manual moving actuation handle, whereto is coupled a rotating tap handle or lever with electronic functions of control, configuration, display and/or generation of acoustic signals, wherein the cartridge has at least one routing formed by cable guiding passages, to convey said cable from the inlet or starting connection of said cable in the cartridge to its connection with the handle or lever of the tap that contains said cartridge, wherein the routing has a passage that traverses the cartridge until an area close to the coupling of the handle or lever , characterized in that , this area has an accumulation space of additional length of cable , the accumulation of additional length of cable being configured in spiral form with a plurality of coil turns within said space , before its connection to the electronic elements of the handle or lever , and wherein the space provided for the accumulation of additional length of said cable in spiral form is sufficient to contain said additional length of cable in spiral form , so that the contraction or expansion produced by the variation in the number of coil turns in the spiral , due to the pulling of the cable at the end of the handle or lever , in its rotation does not press each turn of the cable on the adjacent ones or against the inner and/or outer limits of the space where it is found. wherein the routing has a passage that traverses the cartridge until an area close to the coupling of the handle or lever , characterized in that , this area has an accumulation space of additional length of cable , the accumulation of additional length of cable being configured in spiral form with a plurality of coil turns within said space , before its connection to the electronic elements of the handle or lever , and wherein the space provided for the accumulation of additional length of said cable in spiral form is sufficient to contain said additional length of cable in spiral form , so that the contraction or expansion produced by the variation in the number of coil turns in the spiral , due to the pulling of the cable at the end of the handle or lever , in its rotation does not press each turn of the cable on the adjacent ones or against the inner and/or outer limits of the space where it is found.
A positioning block , used in an optical positioning system for constructing a light path, wherein the positioning block comprises a bottom surface, an upper surface for carrying an optical assembly, and at least one positioning side surface; wherein said positioning block comprises four side surfaces perpendicular to said bottom surface, wherein a horizontal section of said positioning block is a rectangle; characterized in that said positioning block is made of a magnetic material and a magnet is embedded into each of said four side surfaces respectively. wherein said positioning block comprises four side surfaces perpendicular to said bottom surface, wherein a horizontal section of said positioning block is a rectangle; characterized in that said positioning block is made of a magnetic material and a magnet is embedded into each of said four side surfaces respectively.
An image decoding method of decoding, on a per-block basis, a coded image included in a bitstream, the image decoding method comprising: performing arithmetic decoding (S101) on a current block to be decoded; performing arithmetic decoding (S102) on an end-of-slice flag indicating whether or not the current block is at the end of the slice, determining (S103), based on the decoded end-of-slice flag, whether or not the current block is at an end of a slice; performing a first arithmetic decoding termination process (S104) when it is determined that the current block is at the end of the slice, said first arithmetic decoding termination process comprising resetting an internal probability state of arithmetic decoding; and determining (S105) whether or not the current block is at an end of a tile when it is determined that the current block is not at the end of the slice, the tile being a structural unit of the image that is different from the slice; characterized by performing arithmetic decoding (S106) on a sub-last bit included in the bitstream after the current block and a second arithmetic decoding termination process (S106), when it is determined that the current block is not at the end of the slice and when it is determined that the current block is at the end of the tile, wherein arithmetic decoding (S106) of the sub-last bit always restores a value of 1, and wherein, when the second arithmetic decoding termination process is performed, the same processing as in the first arithmetic decoding termination process is performed. performing arithmetic decoding (S101) on a current block to be decoded; performing arithmetic decoding (S102) on an end-of-slice flag indicating whether or not the current block is at the end of the slice, determining (S103), based on the decoded end-of-slice flag, whether or not the current block is at an end of a slice; performing a first arithmetic decoding termination process (S104) when it is determined that the current block is at the end of the slice, said first arithmetic decoding termination process comprising resetting an internal probability state of arithmetic decoding; and determining (S105) whether or not the current block is at an end of a tile when it is determined that the current block is not at the end of the slice, the tile being a structural unit of the image that is different from the slice; characterized by performing arithmetic decoding (S106) on a sub-last bit included in the bitstream after the current block and a second arithmetic decoding termination process (S106), when it is determined that the current block is not at the end of the slice and when it is determined that the current block is at the end of the tile, wherein arithmetic decoding (S106) of the sub-last bit always restores a value of 1, and wherein, when the second arithmetic decoding termination process is performed, the same processing as in the first arithmetic decoding termination process is performed.
Optical assembly for realizing horizontal and vertical spot-size conversion to couple light between an expanded end of a thin waveguide to one end of a thick waveguide , wherein the thin waveguide is thin compared to the thick waveguide , said assembly comprising: - at least one first thin waveguide with a first section having a first optical mode field and a horizontal spot-size expansion section providing spot-size conversion for a first horizontal dimension of said first optical mode field of a light beam propagating in said first waveguide ; - at least one second thick waveguide with a second section having a second optical mode field and a horizontal spot-size reduction section providing spot-size conversion for a second horizontal dimension of said second optical mode field of a light beam propagating in said second waveguide ; characterized in that the expanded end of said at least one first thin waveguide is aligned and rotated to interface with said one end of said at least one second thick waveguide , so that the mode fields in said at least one first thin and at least one second thick waveguides are rotated 90 degrees with respect to each other, whereby the spot size of a light beam so coupled between the at least one first thin and at least one second thick waveguides is expanded or shrunk in both transverse dimensions, depending on the direction of the light beam. - at least one first thin waveguide with a first section having a first optical mode field and a horizontal spot-size expansion section providing spot-size conversion for a first horizontal dimension of said first optical mode field of a light beam propagating in said first waveguide ; - at least one second thick waveguide with a second section having a second optical mode field and a horizontal spot-size reduction section providing spot-size conversion for a second horizontal dimension of said second optical mode field of a light beam propagating in said second waveguide ; characterized in that
A pressure bulkhead comprising: a dome-shaped bulkhead wall having a radially inner disk and a radially outer compression ring , the outer compression ring being reinforced to balance meridional and hoop stresses sustained by the bulkhead wall in response to a pressure differential across the pressure bulkhead; and a plurality of stiffeners attached to the bulkhead wall , the plurality of stiffeners extending in a radial direction, the direction being from the center of the pressure bulkhead toward the outer compression ring ; the radially inner disk being unitary with the outer compression ring; wherein the radially inner disk has a first thickness, and the compression ring has a second thickness greater than the first thickness; and wherein the thickness of the radially inner disk tapers from an outer periphery adjacent the outer compression ring to the center of the pressure bulkhead; wherein the plurality of stiffeners includes a shorter stiffener and a longer stiffener . a dome-shaped bulkhead wall having a radially inner disk and a radially outer compression ring , the outer compression ring being reinforced to balance meridional and hoop stresses sustained by the bulkhead wall in response to a pressure differential across the pressure bulkhead; and a plurality of stiffeners attached to the bulkhead wall , the plurality of stiffeners extending in a radial direction, the direction being from the center of the pressure bulkhead toward the outer compression ring ; the radially inner disk being unitary with the outer compression ring; wherein the radially inner disk has a first thickness, and the compression ring has a second thickness greater than the first thickness; and wherein the thickness of the radially inner disk tapers from an outer periphery adjacent the outer compression ring to the center of the pressure bulkhead; wherein the plurality of stiffeners includes a shorter stiffener and a longer stiffener .
A method for reporting channel state information, CSI, by a user equipment, UE, , in a wireless communication system, the method comprising: receiving a reference signal from a base station, BS, ; and reporting the CSI generated using the reference signal to the BS , wherein the CSI is a CSI for a 2D antenna structure defined by a first domain and a second domain, the first and second domain being horizontal and vertical, respectively, and the CSI includes a channel quality indicator, CQI, for the 2D antenna structure, wherein in a case that the reference signal is a channel status information-reference signal, CSI-RS, the CSI includes a precoding matrix indicator, PMI, and the CQI is calculated based on the PMI, and wherein in a case that the reference signal is a cell-specific reference signal, CRS, in a TDD system, the CSI does not include the PMI and the CQI is calculated based on tilting in the second domain. receiving a reference signal from a base station, BS, ; and reporting the CSI generated using the reference signal to the BS , wherein the CSI is a CSI for a 2D antenna structure defined by a first domain and a second domain, the first and second domain being horizontal and vertical, respectively, and the CSI includes a channel quality indicator, CQI, for the 2D antenna structure, wherein in a case that the reference signal is a channel status information-reference signal, CSI-RS, the CSI includes a precoding matrix indicator, PMI, and the CQI is calculated based on the PMI, and wherein in a case that the reference signal is a cell-specific reference signal, CRS, in a TDD system, the CSI does not include the PMI and the CQI is calculated based on tilting in the second domain.
A system comprising: a brace ; an imaging device secured to the brace for obtaining images of an area of interest as radiotherapy treatment is delivered to the area of interest; a storage device for receiving the images from the imaging device ; a processor configured to: compare two or more of the images of the areas of interest; and determine adjustments to one or more radiation treatment parameters based on the results of the comparison, the one or more radiation treatment parameters defining one or more beam delivery paths; and a controller operably connected to the processor and the brace to cause positional adjustments to the brace ; characterised in that the controller is configured to cause the positional adjustments in response to the adjustments of the one or more treatment parameters to keep the imaging device outside the one or more beam delivery paths. a brace ; an imaging device secured to the brace for obtaining images of an area of interest as radiotherapy treatment is delivered to the area of interest; a storage device for receiving the images from the imaging device ; a processor configured to: compare two or more of the images of the areas of interest; and determine adjustments to one or more radiation treatment parameters based on the results of the comparison, the one or more radiation treatment parameters defining one or more beam delivery paths; and compare two or more of the images of the areas of interest; and determine adjustments to one or more radiation treatment parameters based on the results of the comparison, the one or more radiation treatment parameters defining one or more beam delivery paths; and a controller operably connected to the processor and the brace to cause positional adjustments to the brace ; characterised in that the controller is configured to cause the positional adjustments in response to the adjustments of the one or more treatment parameters to keep the imaging device outside the one or more beam delivery paths.
A sprocket for engagement with a drive chain , comprising: • a central plane extending radially with respect to the axis of rotation; • a plurality of teeth (12; 13, 13') extending radially from a periphery of the sprocket ; • each tooth (12; 13, 13') extending over a given circumferential length of the sprocket; • the plurality of teeth (12; 13, 13') including a first group of teeth and a second group of teeth , wherein the teeth of the first group and the second group are alternately arranged so that each tooth of the first tooth group is followed by a tooth of the second group, and vice versa; • each tooth of the first group of teeth having a first maximum width in the axial direction; • each tooth of the second group of teeth having a second maximum width in the axial direction which is larger than the first maximum width; characterized in that the profile of each tooth of the second group has a first protrusion in the front half of the tooth on a first lateral surface and a second protrusion in the rear half of the tooth on a second, opposite lateral surface of the tooth . • a central plane extending radially with respect to the axis of rotation; • a plurality of teeth (12; 13, 13') extending radially from a periphery of the sprocket ; • each tooth (12; 13, 13') extending over a given circumferential length of the sprocket; • the plurality of teeth (12; 13, 13') including a first group of teeth and a second group of teeth , wherein the teeth of the first group and the second group are alternately arranged so that each tooth of the first tooth group is followed by a tooth of the second group, and vice versa; • each tooth of the first group of teeth having a first maximum width in the axial direction; • each tooth of the second group of teeth having a second maximum width in the axial direction which is larger than the first maximum width;
A microcapsule encapsulating one or more compounds selected from a pyrethroid compound shown in general formula or wherein, R a represents a hydrogen atom, a fluorine atom, a chlorine atom or a methyl group; R b represents a fluorine atom, a chlorine atom, a methyl group or a trifluoromethyl group; R c represents a hydrogen atom, a methyl group, a propargyl group or a methoxymethyl group, and a volume median diameter of the microcapsule is 2 to 100 μm, a film thickness of the microcapsule is 0.02 to 0.3 μm, and the microcapsule is substantially free of a hydrophobic organic solvent, characterized in that the amount of hydrophobic organic solvent relative to the total amount of microcapsule is 5% by weight or less. wherein, R a represents a hydrogen atom, a fluorine atom, a chlorine atom or a methyl group; R b represents a fluorine atom, a chlorine atom, a methyl group or a trifluoromethyl group; R c represents a hydrogen atom, a methyl group, a propargyl group or a methoxymethyl group, and a volume median diameter of the microcapsule is 2 to 100 μm, a film thickness of the microcapsule is 0.02 to 0.3 μm, and the microcapsule is substantially free of a hydrophobic organic solvent, characterized in that the amount of hydrophobic organic solvent relative to the total amount of microcapsule is 5% by weight or less.
A three dimensional , porous, biodegradable and biocompatible tissue engineering scaffold, wherein at least 25% w/w of the scaffold is particulate egg shell membrane (ESM) distributed substantially uniformly therein and the scaffold is essentially dry.