mhurhangee/ep-ind-claims huggingface dataset:
An optical transmission device for transmitting and receiving a multilevel-modulated optical signal, characterized in that the optical transmission device comprises: a plurality of transmission frame processors (212 to 214, 222 to 224) for generating transmission frame signals accommodating a plurality of client signals that are each subjected to error correction processing and scrambling processing; and a digital modulator and demodulator for mapping the transmission frame signals that are input to and output from the plurality of transmission frame processors (212 to 214, 222 to 224) to a multilevel signal and performing digital modulation and demodulation, wherein the plurality of transmission frame processors (212 to 214, 222 to 224) each have a function of shifting a phase of a pattern between a plurality of transmission frames to be mapped to a multilevel signal and be digitally modulated or demodulated by the digital modulator and demodulator. a plurality of transmission frame processors (212 to 214, 222 to 224) for generating transmission frame signals accommodating a plurality of client signals that are each subjected to error correction processing and scrambling processing; and a digital modulator and demodulator for mapping the transmission frame signals that are input to and output from the plurality of transmission frame processors (212 to 214, 222 to 224) to a multilevel signal and performing digital modulation and demodulation, wherein the plurality of transmission frame processors (212 to 214, 222 to 224) each have a function of shifting a phase of a pattern between a plurality of transmission frames to be mapped to a multilevel signal and be digitally modulated or demodulated by the digital modulator and demodulator.
A foldable electronic device comprising: a main body part including a first main body (111, 201, 501) and a second main body (112, 202, 502) that are configured to be folded toward each other or unfolded from each other along a fold line where the first main body (111, 201, 501) and the second main body (112, 202, 502) meet; an image sensor part (210, 710) including a first image sensor (120a, 511) and a second image sensor (120b, 512) which are disposed at the first main body (111, 201, 501); and a processor (230, 530, 730) configured to: obtain a contact image of an object from the first image sensor (120a, 511) disposed at the first main body (111, 201, 501) and obtain an image of a marker that is displayed on the second main body (112, 202, 502), from the second image sensor (120b, 512) disposed at the first main body (111, 201, 501), when the object is in contact with the first image sensor (120a, 511) and the main body part is folded along the fold line, and estimate bio-information based on the contact image of the object and the image of the marker. a main body part including a first main body (111, 201, 501) and a second main body (112, 202, 502) that are configured to be folded toward each other or unfolded from each other along a fold line where the first main body (111, 201, 501) and the second main body (112, 202, 502) meet; an image sensor part (210, 710) including a first image sensor (120a, 511) and a second image sensor (120b, 512) which are disposed at the first main body (111, 201, 501); and a processor (230, 530, 730) configured to: obtain a contact image of an object from the first image sensor (120a, 511) disposed at the first main body (111, 201, 501) and obtain an image of a marker that is displayed on the second main body (112, 202, 502), from the second image sensor (120b, 512) disposed at the first main body (111, 201, 501), when the object is in contact with the first image sensor (120a, 511) and the main body part is folded along the fold line, and estimate bio-information based on the contact image of the object and the image of the marker. obtain a contact image of an object from the first image sensor (120a, 511) disposed at the first main body (111, 201, 501) and obtain an image of a marker that is displayed on the second main body (112, 202, 502), from the second image sensor (120b, 512) disposed at the first main body (111, 201, 501), when the object is in contact with the first image sensor (120a, 511) and the main body part is folded along the fold line, and estimate bio-information based on the contact image of the object and the image of the marker.
A composite multilayer carbon dioxide (CO 2) reduction catalyst, comprising: - a catalyst layer comprising copper, the catalyst layer having opposed first and second sides; - a hydrophobic gas-diffusion layer provided on the first side of the catalyst layer; - a current collection structure provided on the second side of the catalyst layer. - a catalyst layer comprising copper, the catalyst layer having opposed first and second sides; - a hydrophobic gas-diffusion layer provided on the first side of the catalyst layer; - a current collection structure provided on the second side of the catalyst layer.
An induction heating cooker comprising a body; at least one circuit board which is disposed in the body; at least one IGBT component which is disposed in the body and which provides power switching; at least one heat sink which contacts the IGBT component so as to cool the same; at least one fan which is disposed in the body and which provides the cooling of the circuit board and the IGBT component by air; and an air guiding member which is positioned in the flow of the air provided by the fan and which guides the air, characterized by - an air guiding member having groove-shaped air ducts, which is placed on the heat sink and the IGBT component so as to allow the cooling air from the fan to be distributed more evenly to the IGBT components, and - at least one first slit which is provided between the air guiding member and the air outlet of the fan so as to guide the air to the circuit boards on the right and left sides of the body, and at least one second slit which is provided on the body and which enables the air passing over the circuit boards to continue to circulate. - an air guiding member having groove-shaped air ducts, which is placed on the heat sink and the IGBT component so as to allow the cooling air from the fan to be distributed more evenly to the IGBT components, and - at least one first slit which is provided between the air guiding member and the air outlet of the fan so as to guide the air to the circuit boards on the right and left sides of the body, and at least one second slit which is provided on the body and which enables the air passing over the circuit boards to continue to circulate.
A thermoresponsive hydrogel comprising a polyethylene glycol-polycaprolactone-polyethylene glycol (PEG-PCL-PEG) copolymer, polypropylene fumarate; and a poloxamer, wherein the PEG-PCL-PEG: PPF:POL thermoresponsive hydrogel is reversibly thermoresponsive across a temperature range transitioning from a sol (liquid) state, at about 20°C or below about 20°C, to a gel (semi-solid) state, at about human body temperature (36.5°C) or above human body temperature (36.5°C).
An accumulator comprising: a vessel configured to separate a fluid into gas and liquid phases in an interior of the vessel; a plurality of pipes (21, 22) configured to extract the gas phase inside the vessel to the outside of the vessel; and a plurality of holding portions configured to hold together the plurality of pipes (21, 22) extending in parallel inside the vessel, wherein the holding portions are provided in at least two different locations in a vertical direction, characterised in that the holding portions are separated from the vessel, and hold together respective sections of the plurality of pipes (21, 22) inside the vessel, and wherein the holding portions are disposed at a first height, which corresponds to a position of a first node of a tertiary mode of vibrations of the pipes (21, 22), and a second height, which corresponds to a position of a node of a secondary mode of the vibrations of the pipes (21, 22) and to a position of a second node of the tertiary mode. a vessel configured to separate a fluid into gas and liquid phases in an interior of the vessel; a plurality of pipes (21, 22) configured to extract the gas phase inside the vessel to the outside of the vessel; and a plurality of holding portions configured to hold together the plurality of pipes (21, 22) extending in parallel inside the vessel, wherein the holding portions are provided in at least two different locations in a vertical direction, characterised in that the holding portions are separated from the vessel, and hold together respective sections of the plurality of pipes (21, 22) inside the vessel, and wherein the holding portions are disposed at a first height, which corresponds to a position of a first node of a tertiary mode of vibrations of the pipes (21, 22), and a second height, which corresponds to a position of a node of a secondary mode of the vibrations of the pipes (21, 22) and to a position of a second node of the tertiary mode.
An animal cage system comprises at least one cage, the at least one cage comprising a cage top, said cage top including one or more walls extending from a ceiling, a cage base, said cage base including one or more walls extending from a floor, the ceiling being substantially flat, the ceiling of the cage top including one or more openings, the one or more openings being covered respectively by one or more filters, one or more water housing mount pockets formed in the ceiling, the water housing mount pocket including a conical support; a rack for supporting the at least one cage, wherein the conical support includes a bottom end, a lower end and an upper end, the lower end extending to the bottom end, a conical section being positioned at the lower end to extend between bottom end and upper end; and wherein the cage base and the cage top are snap fit together, and the rack includes a suspended runner system for automatically locking the cage base and the cage top together when the cage top and cage base are inserted into the rack, characterized in that the animal cage system further comprises: a structure including a front section and a rear section, the structure being configured to be received under said cage top, the front section being positioned below said water housing mount pocket and the rear section being positioned below the one or more openings, a middle section joining the front section to the rear section, the middle section extending downwardly, the rear section extending into the cage top and the front section and a part of the middle section extending into the cage base. at least one cage, the at least one cage comprising a cage top, said cage top including one or more walls extending from a ceiling, a cage base, said cage base including one or more walls extending from a floor, the ceiling being substantially flat, the ceiling of the cage top including one or more openings, the one or more openings being covered respectively by one or more filters, one or more water housing mount pockets formed in the ceiling, the water housing mount pocket including a conical support; a rack for supporting the at least one cage, wherein the conical support includes a bottom end, a lower end and an upper end, the lower end extending to the bottom end, a conical section being positioned at the lower end to extend between bottom end and upper end; and wherein the cage base and the cage top are snap fit together, and the rack includes a suspended runner system for automatically locking the cage base and the cage top together when the cage top and cage base are inserted into the rack, characterized in that the animal cage system further comprises: a structure including a front section and a rear section, the structure being configured to be received under said cage top, the front section being positioned below said water housing mount pocket and the rear section being positioned below the one or more openings, a middle section joining the front section to the rear section, the middle section extending downwardly, the rear section extending into the cage top and the front section and a part of the middle section extending into the cage base.
A candle (10, 110), comprising a base unit (12, 112) and a candle body (14, 114) removably mounted to the base unit; wherein the candle body comprises a wick (16, 116) and a fibre optic running therethrough; and the base unit comprises: a light sensor configured, in use, to detect light emitted from the wick and transmitted via the fibre optic; and a light source (22a,b,c) configured to operate in dependence on detection of light by the light sensor, characterized in that the candle further comprises a proximity sensor configured, in use, to detect the presence of a candle body mounted to the base unit, wherein the proximity sensor is operable, in use, to: output a control signal for disabling operation of the light source in dependence on the absence of a candle body mounted to the base unit; and/or output a control signal for enabling operation of the light source in dependence on the presence of a candle body mounted to the base unit.
A method of routing a request in a communication system, comprising: including (3-1, 5-1) in the request an identity of a receiving user (UE B), which identity may be interpreted by a Serving Call State Control Function network element (S-CSCF) and an Interrogating Call State Control Function network element (I-CSCF) participating in the routing as an individual identity or as a ranged identity, the individual identity being one of an individual public user identity and an individual public service identity and the ranged identity being a wildcarded public service identity range; searching (3-5, 5-9) for routing information associated with the included identity of the receiving user (UE B); prioritizing one of routing information related to the individual identity or routing information related to the ranged identity; and routing (3-8, 5-12) the request by using the prioritized routing information. including (3-1, 5-1) in the request an identity of a receiving user (UE B), which identity may be interpreted by a Serving Call State Control Function network element (S-CSCF) and an Interrogating Call State Control Function network element (I-CSCF) participating in the routing as an individual identity or as a ranged identity, the individual identity being one of an individual public user identity and an individual public service identity and the ranged identity being a wildcarded public service identity range; searching (3-5, 5-9) for routing information associated with the included identity of the receiving user (UE B); prioritizing one of routing information related to the individual identity or routing information related to the ranged identity; and routing (3-8, 5-12) the request by using the prioritized routing information.
A method of isolating whole juice sacs from at least a portion of a whole citrus fruit, said method comprising: introducing a first enzyme into the at least a portion of the whole citrus fruit to cause the at least a portion of the whole citrus fruit to partially degrade to produce partially degraded citrus; removing peel from the partially degraded citrus to expose a first degraded citrus; applying a second enzyme to the first degraded citrus to cause the first degraded citrus to further degrade to form a second degraded citrus; and isolating the whole juice sacs from the second degraded citrus. introducing a first enzyme into the at least a portion of the whole citrus fruit to cause the at least a portion of the whole citrus fruit to partially degrade to produce partially degraded citrus; removing peel from the partially degraded citrus to expose a first degraded citrus; applying a second enzyme to the first degraded citrus to cause the first degraded citrus to further degrade to form a second degraded citrus; and isolating the whole juice sacs from the second degraded citrus.
A camera module is provided, wherein the camera module comprises a lens optical device and an actuating part; the actuating part comprises two movable blocks, fastening brackets located on two sides of each movable block, and a plurality of electrically controlled flexible members; the lens optical device is located between the two movable blocks, and is fastened on the two movable blocks; each movable block is suspended on the fastening brackets by using elastic members; and each movable block and the fastening brackets on the two sides are connected by the electrically controlled flexible members. the actuating part comprises two movable blocks, fastening brackets located on two sides of each movable block, and a plurality of electrically controlled flexible members; the lens optical device is located between the two movable blocks, and is fastened on the two movable blocks; each movable block is suspended on the fastening brackets by using elastic members; and each movable block and the fastening brackets on the two sides are connected by the electrically controlled flexible members.
A rapid mixing reactor, comprising a first feed-in passage housing (1, 21), a reactor housing (4, 24), a second feed-in passage (17, 34), a hollow blade-wheel feed distributor (6, 26), a rotation shaft (10, 30), and a first feed distributor (3, 23), wherein the first feed-in passage housing (1, 21) is constructed coaxially with respect to the reactor housing (4, 24) and communicated with the reaction space inside the reactor housing (4, 24) via the first feed distributor (3, 23) that is set up at an end of the first feed-in passage housing (1, 21); the second feed-in passage (17, 34), the hollow blade-wheel feed distributor (6, 26) and the rotation shaft (10, 30) each are fixed in connection with each other in the sequence along the central axis of the reactor; the hollow blade-wheel feed distributor (6, 26) is located within the reactor housing (4, 24) and rotates axially under the driving force of the rotation shaft (10, 30); the second feed-in passage (17, 34) is connected with a feed passage (12, 32) inside the hollow blade-wheel feed distributor (6, 26); the first feed-in passage housing (1, 21) is set up with at least one first feed-in inlet (2, 22) therein; the reactor housing (4, 24) is set up with at least one reaction liquid outlet (8, 28) at its distal end; the first feed distributor (3, 23) and the hollow blade-wheel feed distributor (6, 26) are provided with first feed-in jetting hole(s) (13, 33) and second feed-in jetting hole(s) (5, 25), respectively; and at least one stirring paddle (11, 33) comprising at least two stirring blades is fixed on the rotation shaft (10, 30) and perpendicularly to it; characterized in that an annular reaction passage regulation block (7, 27) is fixed on the inner wall of the reactor housing (4, 24) and projects inward, downstream to the hollow blade-wheel feed distributor (6, 26); and the stirring paddle (11, 33) is perpendicularly fixed on the rotation shaft (10, 30), the stirring paddle (11, 33) and the reaction passage regulation block (7, 27) are located in the same cross section perpendicular to the central axis of the reactor.
A polymeric composition obtainable by free-radical polymerization of monoethylenically unsaturated monomers in the presence of at least one ethylene-vinyl ester copolymer, ▪ the monomers comprising at least 70% by weight of alkyl (meth)acrylates based on the amount of all monomers, ▪ the ethylene-vinyl ester copolymers comprising 55 to 85% by weight of ethylene and 15 to 45% by weight of vinyl esters of the general formula H 2 C=CH-O- C-R 1 where R 1 is H or a C 1 - to C 4 hydrocarbyl radical, and ▪ the amount of the monomers being 70 to 90% by weight and that of the ethylene-vinyl ester copolymers 10 to 30% by weight based on the sum of the monomers and the ethylene-vinyl ester copolymers together, wherein the alkyl (meth)acrylates are a mixture of (A1a) 50 to 99 mol% of at least one alkyl (meth)acrylate (A1a) of the general formula H 2 C=C(R 2)-COOR 3 where R 2 is H or a methyl group and R 3 is a linear alkyl radical having 18 to 24 carbon atoms, and (A1b) 1 to 49 mol% of at least one alkyl (meth)acrylate (A1b) of the general formula H 2 C=C(R 2)-COOR 4 where R 2 is as already defined and R 4 is a hydrocarbyl radical selected from the group of R 4a, R 4b and R 4c radicals and the radicals are each defined as follows: R 4a: linear alkyl radicals having 1 to 11 carbon atoms, R 4b: branched alkyl radicals having 4 to 60 carbon atoms, and R 4c: cyclic alkyl radials having 5 to 20 carbon atoms, with the proviso that the sum of the amounts of (A1a) and (A1b) adds up to 100 mol%. ▪ the monomers comprising at least 70% by weight of alkyl (meth)acrylates based on the amount of all monomers, ▪ the ethylene-vinyl ester copolymers comprising 55 to 85% by weight of ethylene and 15 to 45% by weight of vinyl esters of the general formula H 2 C=CH-O- C-R 1 where R 1 is H or a C 1 - to C 4 hydrocarbyl radical, and ▪ the amount of the monomers being 70 to 90% by weight and that of the ethylene-vinyl ester copolymers 10 to 30% by weight based on the sum of the monomers and the ethylene-vinyl ester copolymers together, (A1a) 50 to 99 mol% of at least one alkyl (meth)acrylate (A1a) of the general formula H 2 C=C(R 2)-COOR 3 where R 2 is H or a methyl group and R 3 is a linear alkyl radical having 18 to 24 carbon atoms, and (A1b) 1 to 49 mol% of at least one alkyl (meth)acrylate (A1b) of the general formula H 2 C=C(R 2)-COOR 4 where R 2 is as already defined and R 4 is a hydrocarbyl radical selected from the group of R 4a, R 4b and R 4c radicals and the radicals are each defined as follows: R 4a: linear alkyl radicals having 1 to 11 carbon atoms, R 4b: branched alkyl radicals having 4 to 60 carbon atoms, and R 4c: cyclic alkyl radials having 5 to 20 carbon atoms, with the proviso that the sum of the amounts of (A1a) and (A1b) adds up to 100 mol%. R 4a: linear alkyl radicals having 1 to 11 carbon atoms, R 4b: branched alkyl radicals having 4 to 60 carbon atoms, and R 4c: cyclic alkyl radials having 5 to 20 carbon atoms,
A coating system comprising (i) at least one lipid compound and (ii) at least one gum having emulsifying properties, and (iii) at least one film forming compound and/or at least one emulsifier, characterised in that the mass median diameter of the lipid compound is less than 1μm. (i) at least one lipid compound and (ii) at least one gum having emulsifying properties, and (iii) at least one film forming compound and/or at least one emulsifier,
A process comprising the step of desalinating a composition comprising a contrast agent in a carrier by electrodeionization using a wafer based EDI device, wherein the contrast agent is an X-ray contrast agent selected from iohexol and iodixanol and wherein the process includes additional desalinating by electrodialysis in a separate step before or after the EDI step.