mhurhangee/ep-ind-claims huggingface dataset:
Compounds of the formula, or (R f -A a -C c) n -(spacer) m -X o where for Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -, A = -O-CH 2 -CHR'-, R' = H or C1-C4 alkyl, C = C1-C4 alkylene, O, or -OCO-, spacer = a linear or branched hydrocarbon unit, optionally provided with heteroatoms, X is an anionic, cationic, nonionic or amphoteric group, a = 1, n = 2 or 3, c = 1, m = 1, and o = 1 or 2, and for Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CO-, C = -NR"-, where R" = H, alkyl or -(CH 2 CHR"') m' -R"", where m' = an integer from the range from 1 to 100 and R"' = H or C1-C4-alkyl and R"" = alkyl, where one or more non-adjacent C atoms may be replaced by O, spacer = linear or branched alkylene, X is an anionic, cationic, nonionic or amphoteric group, a = 0, n = 2 or 3, c = 1, m = 1, and o = 1 or 2, and o = 0 if R" = -(CH 2 CHR"') m' -R""; where Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -, A = -O-CH 2 -CHR'-, R' = H, CH 3, C 2 H 5, a = 1, X is an anionic, cationic, nonionic or amphoteric group, R 1 = hydrogen or -CH 2 -COO- a -Rf, R 2 = hydrogen, -CH 2 -COO- a -Rf or X, where Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CO- or = Rf', where Rf' = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -O-CH 2 -CHR'-, p = 1-10, q = 1-10 and R' and R" have the meanings described for formula, D and/or D' = H or X, where X is an anionic, cationic, nonionic or amphoteric group and at least one group is equal to X if R" = H or alkyl. for Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -, A = -O-CH 2 -CHR'-, R' = H or C1-C4 alkyl, C = C1-C4 alkylene, O, or -OCO-, spacer = a linear or branched hydrocarbon unit, optionally provided with heteroatoms, X is an anionic, cationic, nonionic or amphoteric group, a = 1, n = 2 or 3, c = 1, m = 1, and o = 1 or 2, and for Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CO-, C = -NR"-, where R" = H, alkyl or -(CH 2 CHR"') m' -R"", where m' = an integer from the range from 1 to 100 and R"' = H or C1-C4-alkyl and R"" = alkyl, where one or more non-adjacent C atoms may be replaced by O, spacer = linear or branched alkylene, X is an anionic, cationic, nonionic or amphoteric group, a = 0, n = 2 or 3, c = 1, m = 1, and o = 1 or 2, and o = 0 if R" = -(CH 2 CHR"') m' -R""; Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -, A = -O-CH 2 -CHR'-, R' = H, CH 3, C 2 H 5, a = 1, X is an anionic, cationic, nonionic or amphoteric group, R 1 = hydrogen or -CH 2 -COO- a -Rf, R 2 = hydrogen, -CH 2 -COO- a -Rf or X, Rf = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CO- or = Rf', where Rf' = CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 -O-CH 2 -CHR'-, p = 1-10, q = 1-10 and R' and R" have the meanings described for formula, D and/or D' = H or X, where X is an anionic, cationic, nonionic or amphoteric group and at least one group is equal to X if R" = H or alkyl.
A process for recovering an ethylene oxide enriched product stream from fat absorbent comprising water, EO, and acetaldehyde, the process comprising: passing a feed of FA from a loopgas EO absorber to a multi-stage countercurrent distillation zone, the feed of FA having a concentration of EO in the range of from 1 to 15 wt% upon entering the distillation zone; and obtaining from the distillation zone an acetaldehyde enriched stream, a lean absorbent stream, a vapour stream enriched in light ends and an EO enriched product stream, and wherein the FA comprises glycols and the process comprises obtaining from the distillation zone a glycol enriched bottoms stream. passing a feed of FA from a loopgas EO absorber to a multi-stage countercurrent distillation zone, the feed of FA having a concentration of EO in the range of from 1 to 15 wt% upon entering the distillation zone; and obtaining from the distillation zone an acetaldehyde enriched stream, a lean absorbent stream, a vapour stream enriched in light ends and an EO enriched product stream, and wherein the FA comprises glycols and the process comprises obtaining from the distillation zone a glycol enriched bottoms stream.
Cabinet body, in particular as under-cabinet for office equipment, comprising: - a bottom plate and - a top plate, wherein - the bottom plate has a substantially plane bottom face and at least three connecting surfaces (30a-30c) formed at the edge of the bottom face by folding the bottom plate, - the top plate has a substantially plane top face and at least two side faces (16a, 16b) formed at the edge of the top face by folding the top plate, and a rear face formed at the edge of the top face by folding the top plate and - the side faces (16a, 16b) and the rear face are each connected to one of the connecting surfaces (30a-30c), characterised in that the cabinet body has a front face which comprises two partial faces (18a, 18b) lying substantially in one plane and separated by an opening, the two partial faces (18a, 18b) of the front face each being formed by folding the side faces (16a, 16b) of the top plate. - a bottom plate and - a top plate, - the bottom plate has a substantially plane bottom face and at least three connecting surfaces (30a-30c) formed at the edge of the bottom face by folding the bottom plate, - the top plate has a substantially plane top face and at least two side faces (16a, 16b) formed at the edge of the top face by folding the top plate, and a rear face formed at the edge of the top face by folding the top plate and - the side faces (16a, 16b) and the rear face are each connected to one of the connecting surfaces (30a-30c),
A computer-implemented method comprising: executing a plurality of transactions in a data storage application; sequentially storing log entries in log segments according to the plurality of transactions in at least one log, each log entry containing a log sequence number, a type of the log entry and a transaction identifier, each log segment having a first globally unique identifier (GUID) uniquely identifying the log segment and comprising a second GUID uniquely identifying an immediately preceding log segment in the sequence, each log segment further comprising a database identifier identifying a database where such log segment is stored; storing a current position of a log entry in the at least one log and a current log segment GUID to which the current position belongs together with data pages during data backup; determining a position in the at least one log from which to initiate replay of the log segments and a GUID for a corresponding log segment at the determined position at database recovery time based on information stored during data backup; and initiating replay of the log segments starting at the determined position, wherein each log segment used for the replay is provided to a data recovery process, and wherein the data recovery process verifies that the GUIDs stored with each log segment correspond to the sequence according to which the log segments were stored. executing a plurality of transactions in a data storage application; sequentially storing log entries in log segments according to the plurality of transactions in at least one log, each log entry containing a log sequence number, a type of the log entry and a transaction identifier, each log segment having a first globally unique identifier (GUID) uniquely identifying the log segment and comprising a second GUID uniquely identifying an immediately preceding log segment in the sequence, each log segment further comprising a database identifier identifying a database where such log segment is stored; storing a current position of a log entry in the at least one log and a current log segment GUID to which the current position belongs together with data pages during data backup; determining a position in the at least one log from which to initiate replay of the log segments and a GUID for a corresponding log segment at the determined position at database recovery time based on information stored during data backup; and initiating replay of the log segments starting at the determined position, wherein each log segment used for the replay is provided to a data recovery process, and wherein the data recovery process verifies that the GUIDs stored with each log segment correspond to the sequence according to which the log segments were stored.
An iliac artery stent graft; the iliac artery stent graft comprising a substantially inverted Y shape comprising a second leg (12, 84, 108) terminating in a second end, and first (16, 82, 100, 104) and third (18, 86, 112) arms terminating respectively in a first end and a third end; each of the first (16, 82, 100, 104) and third (18, 86, 112) arms and the second leg (12, 84, 108) comprising a tubular graft of biocompatible graft material, the first arm (16, 82, 100, 104) being supported by a first stent arrangement and the third arm (18, 86, 112) being supported by a third stent arrangement; first (16, 82, 100, 104) and third (18, 86, 112) arms and the second (12, 84, 108) leg being joined at a junction to allow fluid flow from the second leg (12, 84, 108) into the first (16, 82, 100, 104) and third (18, 86, 112) arms; the first end comprising an internal self expanding sealing stent and an outer sealing surface; the second end comprising an external self expanding stent and an internal sealing surface; wherein the first stent arrangement and the third stent arrangement together comprise a structure comprising the first (16, 82, 100, 104) and third (18, 86, 112) arms together being a substantially semicircular shape in use; wherein the first arm is for being deployed extending towards the external iliac artery, the second arm is for being deployed extending towards the iliac bifurcation, and the third arm is for being deployed extending towards the internal iliac artery.
Method for compressing a CO 2 -rich fluid containing at least 30% molar of CO 2 as a dry base and water wherein the CO 2 -rich fluid is compressed in a compressor (57, 61), upstream of the step of compression, an antifreeze agent is mixed with the CO 2 -rich fluid containing water, the CO 2 -rich fluid containing the antifreeze agent is cooled, the water is separated from the cooled fluid by sending the cooled CO 2 -rich fluid containing water to a scrubbing column fed at the top by a mixture of water and antifreeze where it is cooled and separated from the water and the water-depleted cooled fluid is extracted at the top of the column and sent to the compressor, water is extracted from the bottom of the scrubbing column, a mixture of water and antifreeze is extracted in the scrubbing column at an intermediate level of the latter, characterised in that said mixture is cooled, the mixture is purified by distillation in a purification column having a bottom reboiler, a liquid is extracted containing water and antifreeze in the bottom of the purification column, the liquid is returned to the head of the scrubbing column and the amount of reboiling by the bottom reboiler is set according to the antifreeze content (41, 53, 115) feeding a cooling section (E, F) of the scrubbing column or of the liquid extracted from the bottom of the purification column or of a liquid that is the mixture of water and antifreeze withdrawn from a section at an intermediate level of the scrubbing column.
A method of forming mono-crystalline white colour gem grade diamond by microwave plasma chemical vapour deposition, the method comprising the steps of: (a) providing at least one diamond seed; (b) exposing the diamond seed to conditions for growing gem grade diamond by microwave plasma chemical vapour deposition, including supplying reaction gases that include a carbon-containing gas for growing diamond and include a nitrogen-containing gas and diborane; (c) controlling the quantity of nitrogen-containing gas and diborane relative to other gases in the reaction gases such that diamond is caused to grow by step-growth without defects and graphitic inclusions, wherein the concentration of nitrogen used is not higher than 0.015 vol%; and (d) heating the diamond to a temperature of 2300 °C in hydrogen plasma to enhance the colour and clarity of the diamond. (a) providing at least one diamond seed; (b) exposing the diamond seed to conditions for growing gem grade diamond by microwave plasma chemical vapour deposition, including supplying reaction gases that include a carbon-containing gas for growing diamond and include a nitrogen-containing gas and diborane; (c) controlling the quantity of nitrogen-containing gas and diborane relative to other gases in the reaction gases such that diamond is caused to grow by step-growth without defects and graphitic inclusions, wherein the concentration of nitrogen used is not higher than 0.015 vol%; and (d) heating the diamond to a temperature of 2300 °C in hydrogen plasma to enhance the colour and clarity of the diamond.
A method for a user equipment, UE, in a wireless communication system supporting carrier aggregation, wherein the UE comprises a radio entity on which at least one component carrier is served by a network node, comprising the steps of: - receiving a first indication from the network node for updating the at least one component carrier comprising an order which requires a retuning of the radio entity, encapsulated in a first control message; - receiving at least a second indication for updating the at least one component carrier comprising an order which requires a retuning of the radio entity, encapsulated in a second control message; characterized by, - combining all orders received within a specific period of time, starting with the reception of the first indication, into at maximum one retuning step; - retuning the radio entity in accordance with the combined orders. - receiving a first indication from the network node for updating the at least one component carrier comprising an order which requires a retuning of the radio entity, encapsulated in a first control message; - receiving at least a second indication for updating the at least one component carrier comprising an order which requires a retuning of the radio entity, encapsulated in a second control message; characterized by, - combining all orders received within a specific period of time, starting with the reception of the first indication, into at maximum one retuning step; - retuning the radio entity in accordance with the combined orders.
A method for repairing a micro-LED, comprising: bringing a conductive pick-up head into contact with a known-good micro-LED on a carrier substrate via a conductive adhesive; locally joule heating a second bonding layer though the conductive pick-up head, to melt the second bonding layer, wherein the second bonding layer is provided between the known-good micro-LED and the carrier substrate; picking up the known-good micro-LED using the conductive pick-up head; bringing the known-good micro-LED on the conductive pick-up head into contact with a first pad on a defective position of a defective micro-LED on a receiving substrate, wherein the defective position is found after micro-LEDs are transferred to the receiving substrate, wherein the conductive pick-up head and the known-good micro-LED are bonded via the conductive adhesive; locally joule heating a first bonding layer through the conductive pick-up head, to melt the first bonding layer, wherein the first bonding layer is provided between the known-good micro-LED and the first pad; and lifting up the conductive pick-up head after the first bonding layer is cooled, leaving the known-good micro-LED on the receiving substrate, wherein the adhesion force of the conductive adhesive is larger than the surface tension when the bonding layers are melted and is lower than the bonding strength when the bonding layers are cooled. bringing a conductive pick-up head into contact with a known-good micro-LED on a carrier substrate via a conductive adhesive; locally joule heating a second bonding layer though the conductive pick-up head, to melt the second bonding layer, wherein the second bonding layer is provided between the known-good micro-LED and the carrier substrate; picking up the known-good micro-LED using the conductive pick-up head; bringing the known-good micro-LED on the conductive pick-up head into contact with a first pad on a defective position of a defective micro-LED on a receiving substrate, wherein the defective position is found after micro-LEDs are transferred to the receiving substrate, wherein the conductive pick-up head and the known-good micro-LED are bonded via the conductive adhesive; locally joule heating a first bonding layer through the conductive pick-up head, to melt the first bonding layer, wherein the first bonding layer is provided between the known-good micro-LED and the first pad; and lifting up the conductive pick-up head after the first bonding layer is cooled, leaving the known-good micro-LED on the receiving substrate,
A modular barrier for containing landslide masses along inclined slopes, comprising: - a series of bearing posts, emerging from the ground, having a lower portion planted in the ground, - a plurality of longitudinal members which run transversally of the posts each having ends thereof constrained to two consecutive posts, - constraining devices which connect the longitudinal members to the posts, each having a first hinge component constrained to the respective post, and being free to oscillate with respect to the post about the axis of the post, and a second hinge component constrained to a longitudinal member by means of a pin which enables the longitudinal member to oscillate about an axis that is perpendicular to a plane defined by the two consecutive posts which are connected to one another by the longitudinal member; - a containing means, able to retain the landslide mass, placed against an uphill side of the longitudinal members, in turn retained by the posts and by the longitudinal members. - a series of bearing posts, emerging from the ground, having a lower portion planted in the ground, - a plurality of longitudinal members which run transversally of the posts each having ends thereof constrained to two consecutive posts, - constraining devices which connect the longitudinal members to the posts, each having a first hinge component constrained to the respective post, and being free to oscillate with respect to the post about the axis of the post, and a second hinge component constrained to a longitudinal member by means of a pin which enables the longitudinal member to oscillate about an axis that is perpendicular to a plane defined by the two consecutive posts which are connected to one another by the longitudinal member; - a containing means, able to retain the landslide mass, placed against an uphill side of the longitudinal members, in turn retained by the posts and by the longitudinal members.
A wireless transmitter comprising a plurality of transmission antennas (2, 3, 4); and a phase rotating unit which adds phase rotation to signals which are respectively input to the plurality of transmission antennas (2, 3, 4), characterized in that the phase rotating unit adds first phase rotation for controlling the maximum delay time between the plurality of transmission antennas (2, 3, 4) and second phase rotation for controlling the phases of arbitrary antennas among the plurality of transmission antennas (2, 3, 4).
A base component, comprising: a base and an overflow cover, wherein the base has a side plate and an upper surface, the side plate has a mounting surface perpendicular to the upper surface, the overflow cover includes an overflow cover body, the overflow cover body is provided with an overflow port and a mounting portion, and the overflow cover body has an overflow chamber, the base has an overflow hole and a connection portion engaged with the mounting portion for fixing, the overflow hole and the connection portion are both provided on the mounting surface, and the overflow port and the overflow hole are both in communication with the overflow chamber to form an overflow channel between the overflow cover body and the base, characterized in that one side of the overflow cover, adjacent to the upper surface of the base, is arranged with a water inlet plate communicating with the overflow port, and the water inlet plate is provided with a plurality of filter holes, wherein the water inlet plate is arranged obliquely to the upper surface.
A compound, or a pharmaceutically acceptable salt, hydrate, or solvate thereof, for use in treating at least one negative symptom of schizophrenia in a schizophrenic subject in need thereof by a method which comprises administering a therapeutically effective amount of the compound, salt, hydrate, or solvate to the subject, wherein the compound is selected from the group consisting of a compound of formula, and a compound of formula,
A method of securely pairing devices, the method comprising: receiving, at a host device, an input indicating a user credential for logging into the host device; initiating, at the host device, a scanning process for discovering target devices (130-1, 130-2, 130-3, 130-4, 130-5, 130-6, 130-7) available for pairing with the host device; receiving, at the host device, during the scanning process, wireless pairing information from a target device of the target devices (130-1, 130-2, 130-3, 130-4, 130-5, 130-6, 130-7), the wireless pairing information including (i) a unique device identifier associated with the target device and (ii) an electronic signature generated as a function of a signature key stored at the target device and the unique device identifier associated with the target device; comparing, at the host device, the electronic signature with a run-time signature generated at the host device as a function of the user credential received at the host device and the unique device identifier included in the wireless pairing information; and initiating, at the host device, a pairing process to establish a short-range communication link with the target device when the electronic signature matches with the run-time signature, wherein the signature key stored at the target device corresponds to a key generated at the host device as a function of (i) the user credential supplied to the host device during a signing process between the host device and the target device and (ii) the unique device identifier associated with the target device. receiving, at a host device, an input indicating a user credential for logging into the host device; initiating, at the host device, a scanning process for discovering target devices (130-1, 130-2, 130-3, 130-4, 130-5, 130-6, 130-7) available for pairing with the host device; receiving, at the host device, during the scanning process, wireless pairing information from a target device of the target devices (130-1, 130-2, 130-3, 130-4, 130-5, 130-6, 130-7), the wireless pairing information including (i) a unique device identifier associated with the target device and (ii) an electronic signature generated as a function of a signature key stored at the target device and the unique device identifier associated with the target device; comparing, at the host device, the electronic signature with a run-time signature generated at the host device as a function of the user credential received at the host device and the unique device identifier included in the wireless pairing information; and initiating, at the host device, a pairing process to establish a short-range communication link with the target device when the electronic signature matches with the run-time signature, wherein the signature key stored at the target device corresponds to a key generated at the host device as a function of (i) the user credential supplied to the host device during a signing process between the host device and the target device and (ii) the unique device identifier associated with the target device.