mhurhangee/patent-ind-claim-en huggingface dataset:
An angle adjustment mechanism comprising: a base member to which a display device is attached; a support member configured to support the base member from below and move up and down in conjunction with a rotation operation of the base member ; a mount member having a rotation shaft rotatably connecting the base member ; and a suppression member configured to suppress up-and-down movement of the support member by frictional force, the suppression member being formed of an elastic material and attached to the mount member , wherein the suppression member is provided with a hole into which a part of the support member is inserted, and the frictional force is generated between the suppression member and the support member in the hole, and the support member is configured to move up and down by sliding through a hole provided in the suppression member in association with a rotation operation of the base member , and to stop movement by the frictional force when the rotation operation of the base member stops. a base member to which a display device is attached; a support member configured to support the base member from below and move up and down in conjunction with a rotation operation of the base member ; a mount member having a rotation shaft rotatably connecting the base member ; and a suppression member configured to suppress up-and-down movement of the support member by frictional force, the suppression member being formed of an elastic material and attached to the mount member , wherein the suppression member is provided with a hole into which a part of the support member is inserted, and the frictional force is generated between the suppression member and the support member in the hole, and the support member is configured to move up and down by sliding through a hole provided in the suppression member in association with a rotation operation of the base member , and to stop movement by the frictional force when the rotation operation of the base member stops.
Mortar comprising water, binder and fine aggregate, wherein the binder includes cement and fine mineral powder, wherein the fine aggregate is air granulated ferronickel slag, and weight ratio of water to a combination of the binder and the fine aggregate is 7.0% or more and 9.0% or less and a water absorption rate of the fine aggregate, defined as (absorbed water weight/oven dry weight) × 100 (%), is 1.5% or more and 3.5% or less, and equilibrium moisture content of the fine aggregate, determined as the saturation point that the moisture content reaches by drying the fine aggregate at a temperature of about 20°C and at a relative humidity of about 95% after the fine aggregate is saturated with water, is 0.10% or more and 0.30% or less. wherein the fine aggregate is air granulated ferronickel slag, and weight ratio of water to a combination of the binder and the fine aggregate is 7.0% or more and 9.0% or less and a water absorption rate of the fine aggregate, defined as (absorbed water weight/oven dry weight) × 100 (%), is 1.5% or more and 3.5% or less, and equilibrium moisture content of the fine aggregate, determined as the saturation point that the moisture content reaches by drying the fine aggregate at a temperature of about 20°C and at a relative humidity of about 95% after the fine aggregate is saturated with water, is 0.10% or more and 0.30% or less.
A method of reducing color in an alkanolamine, the method comprising: contacting the alkanolamine with a color-reducing amount of a borane complex effective to provide an alkanolamine composition having a Platinum-Cobalt Color Value, Test Method ASTM D1209, of less than 50, wherein the borane complex is of the formula L·BH 3 wherein L is ammonia or a C 1-24 organic amine, an organic phosphine substituted with three C 1-12 hydrocarbyl groups, a C 3-18 heterocycle, or a C 2-20 thioether; or the borane complex is of the formula H 3 N·BR a H 3-a wherein a is 1 or 2, and each R is independently the same or different, and is a C 1-12 alkyl group, a C 3-8 cycloalkyl group, a C 3-7 heterocycloalkyl group, a C 6-10 aromatic group, or a C 3-15 heteroaromatic group, optionally wherein two R form a ring with the boron atom,. contacting the alkanolamine with a color-reducing amount of a borane complex effective to provide an alkanolamine composition having a Platinum-Cobalt Color Value, Test Method ASTM D1209, of less than 50, wherein the borane complex is of the formula L·BH 3 wherein L is ammonia or a C 1-24 organic amine, an organic phosphine substituted with three C 1-12 hydrocarbyl groups, a C 3-18 heterocycle, or a C 2-20 thioether; or the borane complex is of the formula H 3 N·BR a H 3-a wherein a is 1 or 2, and each R is independently the same or different, and is a C 1-12 alkyl group, a C 3-8 cycloalkyl group, a C 3-7 heterocycloalkyl group, a C 6-10 aromatic group, or a C 3-15 heteroaromatic group, optionally wherein two R form a ring with the boron atom,.
A method for cross-blockchain interaction performed by a blockchain node in a first blockchain, by a subscription client corresponding to the blockchain node, and by a cross-chain interaction end between the first blockchain and a second blockchain, the method comprising: initiating, by the blockchain node, a subscription request to the cross-chain interaction end; maintaining, by the subscription client, a queue status of a message queue; obtaining , by the blockchain node, a message from the second blockchain based on the subscription request, wherein obtaining , by the blockchain node, the message comprises sending by the subscription client the queue status to the cross-chain interaction end, so that the cross-chain interaction end obtains a message that is published in the second blockchain and satisfies subscription conditions of the blockchain node when the cross-chain interaction end determines, based on the queue status, that the message queue does not comprise a message satisfying the subscription conditions, wherein the subscription request is used to indicate the subscription conditions to the cross-chain interaction end; and executing an operation related to the message. initiating, by the blockchain node, a subscription request to the cross-chain interaction end; maintaining, by the subscription client, a queue status of a message queue; obtaining , by the blockchain node, a message from the second blockchain based on the subscription request, wherein obtaining , by the blockchain node, the message comprises sending by the subscription client the queue status to the cross-chain interaction end, so that the cross-chain interaction end obtains a message that is published in the second blockchain and satisfies subscription conditions of the blockchain node when the cross-chain interaction end determines, based on the queue status, that the message queue does not comprise a message satisfying the subscription conditions, wherein the subscription request is used to indicate the subscription conditions to the cross-chain interaction end; and executing an operation related to the message.
Cosmetic preparation comprising a) 4-(tert-butyl)-4'-methoxydibenzoylmethane (INCI Butyl Methoxydibenzoylmethane), b) one or more chelating agents selected from the group of - diethylenetriaminepenta(methylenephosphonic acid)/ DTPMP - tetrasodium pyrophosphate - succinic acid and/or alkali metal salts thereof. a) 4-(tert-butyl)-4'-methoxydibenzoylmethane (INCI Butyl Methoxydibenzoylmethane), b) one or more chelating agents selected from the group of - diethylenetriaminepenta(methylenephosphonic acid)/ DTPMP - tetrasodium pyrophosphate - succinic acid and/or alkali metal salts thereof. - diethylenetriaminepenta(methylenephosphonic acid)/ DTPMP - tetrasodium pyrophosphate - succinic acid and/or alkali metal salts thereof.
An evaporative condenser comprising at least one heat exchanger wherein a coolant circulates and which is delimited by a first face and a second face , opposite to the first face , characterised in what it comprises: - a system for containment of coolant leaks comprising a containment box (42; 46) mounted on at least first and second faces of the heat exchanger , said containment box (42; 46) delimiting a closed casing with said face of the heat exchanger , - at least one sensor for detecting the presence of coolant in the containment box, and - a sprinkling system comprising a sprinkling nozzle which is mounted in the containment box , said nozzle being configured to spray by sprinkling a neutralisation fluid when a coolant leak is detected by the detection sensor. - a system for containment of coolant leaks comprising a containment box (42; 46) mounted on at least first and second faces of the heat exchanger , said containment box (42; 46) delimiting a closed casing with said face of the heat exchanger , - at least one sensor for detecting the presence of coolant in the containment box, and - a sprinkling system comprising a sprinkling nozzle which is mounted in the containment box , said nozzle being configured to spray by sprinkling a neutralisation fluid when a coolant leak is detected by the detection sensor.
Braided hose comprising: - an inner tube defining a longitudinal axis made of an elastic material, such as a synthetic or natural rubber, or of a thermoplastic material; - a first braided reinforcement layer enveloping the inner tube ; - an outer protective layer ; wherein a leno layer is placed between the inner tube and the first braided reinforcement layer , characterized in that the inner tube comprises two or more layers, one of which is a vulcanized rubber layer, and another layer is made of a textile fabric. - an inner tube defining a longitudinal axis made of an elastic material, such as a synthetic or natural rubber, or of a thermoplastic material; - a first braided reinforcement layer enveloping the inner tube ; - an outer protective layer ; wherein a leno layer is placed between the inner tube and the first braided reinforcement layer , characterized in that the inner tube comprises two or more layers, one of which is a vulcanized rubber layer, and another layer is made of a textile fabric.
A method of compressing In-phase/Quadrature (I/Q) data transmitted and received between a Digital Unit (DU) and a Radio Unit (RU) in a Cloud Radio Access Network (CRAN) structure, the method comprising the steps of: (a) calculating (S30) a value D i MSB being the minimum value among meaningless higher-order bit digits D MSB i , j with respect to each of j-th I/Q samples having a predetermined resolution among i-th unit blocks that are units of compression, wherein, in the (a) calculating step, a minimum compression rate is ensured in a way such that a value Q i MSB being the maximum value among meaningful lower-order bit digits Q MSB i , j with respect to each of the samples is further calculated (S40); (b) calculating (S50) a lower-order bit digit P i LSB to be removed by deducting D i MSB from the minimum number of compressed bits B MIN before the (c) transmitting (S90); (c) transmitting (S90) each of the samples after each of the samples is converted into a binary number and D i MSB number of higher-order bits, excluding a sign bit, are removed; and (d) additionally transmitting, in the form of a header, code word information obtained by source-coding Q i MSB so as to decompress at a reception terminal. (a) calculating (S30) a value D i MSB being the minimum value among meaningless higher-order bit digits D MSB i , j with respect to each of j-th I/Q samples having a predetermined resolution among i-th unit blocks that are units of compression, wherein, in the (a) calculating step, a minimum compression rate is ensured in a way such that a value Q i MSB being the maximum value among meaningful lower-order bit digits Q MSB i , j with respect to each of the samples is further calculated (S40); (b) calculating (S50) a lower-order bit digit P i LSB to be removed by deducting D i MSB from the minimum number of compressed bits B MIN before the (c) transmitting (S90); (c) transmitting (S90) each of the samples after each of the samples is converted into a binary number and D i MSB number of higher-order bits, excluding a sign bit, are removed; and (d) additionally transmitting, in the form of a header, code word information obtained by source-coding Q i MSB so as to decompress at a reception terminal.
A method (550; 1150; 1250) for rendering an audio signal, the method comprising: receiving an input audio signal , the input audio signal comprising a first portion and a second portion; using a reverberation processing system (510A; 510B; 510C) to: apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal , apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal , wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal ; using a direct processing system to: introduce a delay into the second portion of the input audio signal , and apply a gain to the second portion of the input audio signal ; combining the first portion of the input audio signal from the reverberation processing system (510A; 510B; 510C) and the second portion of the input audio signal from the direct processing system ; and outputting the combined first and second portions of the input audio signal as an output audio signal ; wherein the RIP correction factor depends on one or more of: a reverberator topology, a number and durations of delay units, connection gains, and filter parameters. receiving an input audio signal , the input audio signal comprising a first portion and a second portion; using a reverberation processing system (510A; 510B; 510C) to: apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal , apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal , wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal ; apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal , apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal , wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal ; using a direct processing system to: introduce a delay into the second portion of the input audio signal , and apply a gain to the second portion of the input audio signal ; introduce a delay into the second portion of the input audio signal , and apply a gain to the second portion of the input audio signal ; combining the first portion of the input audio signal from the reverberation processing system (510A; 510B; 510C) and the second portion of the input audio signal from the direct processing system ; and outputting the combined first and second portions of the input audio signal as an output audio signal ; wherein the RIP correction factor depends on one or more of: a reverberator topology, a number and durations of delay units, connection gains, and filter parameters.
An apparatus for warming up or cooling down a liquid surface treatment agent, such as paint, located in a pail , wherein the apparatus comprises at least one pressurized air element provided with an inlet portion arranged for connection to pressurized air, and also provided with a warm air outlet portion and a cold air outlet portion wherein the air is warmer and colder, respectively, than the air supplied through the inlet portion, wherein air from one of the warm air outlet portion and the cold air outlet portion is communicated into a pipe configured for providing heat exchange with the liquid surface treatment agent while air from the pressurized air element flows through the pipe , wherein the pipe is either a) conducted down into the pail , or b) placed around an external portion of the pail , and wherein the pressurized air element is attached to an edge portion of the pail by means of an attachment device . a) conducted down into the pail , or b) placed around an external portion of the pail , and
A method, performed by a first eNB , for acquiring an identifier of a new cell of a second eNB and connecting the first eNB to the second eNB , comprising: receiving a Physical Cell ID, PCI, from a UE ; determining whether the received PCI is not present in a database managed by the first eNB ; transmitting a cell information request for acquiring an Evolved universal terrestrial radio access Cell Global Identifier, ECGI, of the new cell to the UE; receiving an ECGI from the UE; acquiring a proper Public Land Mobile Network IDentifier, PLMN ID, based on the received ECGI; transmitting , to an Evolved Packet Core, EPC, , an eNB configuration transfer message which includes a global eNB identifier, GEI, for acquiring an X2 address of the second eNB , said GEI being acquired by using the acquired proper PLMN ID; and receiving , from the EPC , a MME configuration transfer message which includes the X2 address of the second eNB for connecting the first eNB to the second eNB , wherein the proper PLMN ID is one of: if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI. receiving a Physical Cell ID, PCI, from a UE ; determining whether the received PCI is not present in a database managed by the first eNB ; transmitting a cell information request for acquiring an Evolved universal terrestrial radio access Cell Global Identifier, ECGI, of the new cell to the UE; receiving an ECGI from the UE; acquiring a proper Public Land Mobile Network IDentifier, PLMN ID, based on the received ECGI; transmitting , to an Evolved Packet Core, EPC, , an eNB configuration transfer message which includes a global eNB identifier, GEI, for acquiring an X2 address of the second eNB , said GEI being acquired by using the acquired proper PLMN ID; and receiving , from the EPC , a MME configuration transfer message which includes the X2 address of the second eNB for connecting the first eNB to the second eNB , wherein the proper PLMN ID is one of: if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI. if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI.
A method for preparing a super absorbent polymer, the method comprising the steps of: forming a first hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a first centrifuge retention capacity (CRC; g/g) for a physiological saline solution measured in accordance with EDANA recommended test method No. WSP 241.2 and a first absorption rate (sec) measured according to the vortex test carried out under conditions of stirring 50 ml of 0.9 wt% NaCI solution at a rate of 600 rpm; forming a second hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a second centrifuge retention capacity (CRC; g/g) in which a difference between the first centrifuge retention capacity and the second centrifuge retention capacity is -2 g/g to 2 g/g, and a second absorption rate (sec) in which a difference between the first absorption rate and the second absorption rate is 5 sec or more. forming a mixture of the first hydrogel polymer and the second hydrogel polymer; drying the polymer mixture; pulverizing the dried polymer mixture; and surface-crosslinking the pulverized polymer mixture. forming a first hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a first centrifuge retention capacity (CRC; g/g) for a physiological saline solution measured in accordance with EDANA recommended test method No. WSP 241.2 and a first absorption rate (sec) measured according to the vortex test carried out under conditions of stirring 50 ml of 0.9 wt% NaCI solution at a rate of 600 rpm; forming a second hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a second centrifuge retention capacity (CRC; g/g) in which a difference between the first centrifuge retention capacity and the second centrifuge retention capacity is -2 g/g to 2 g/g, and a second absorption rate (sec) in which a difference between the first absorption rate and the second absorption rate is 5 sec or more. forming a mixture of the first hydrogel polymer and the second hydrogel polymer; drying the polymer mixture; pulverizing the dried polymer mixture; and surface-crosslinking the pulverized polymer mixture.
Anchor implant comprising an implant body, which is made substantially of ceramic material and has an external helical thread, which has more than one thread web and wherein a thread pitch angle of the external helical thread ranges from 30° to 90°.
A nitrile group-containing highly saturated copolymer rubber composition containing a nitrile group-containing highly saturated copolymer rubber (A) having a Mooney viscosity [ML 1+4 , 100°C] of 50 to 200, a nitrile group-containing highly saturated copolymer rubber (B) having a Mooney viscosity [ML 1+4 , 100°C] of 10 to 40, and staple fibers (C) having an average fiber length of 0.1 to 12 mm, wherein a content of the nitrile group-containing highly saturated copolymer rubber (B) is 5 to 75 wt% with respect to 100 wt% of the total of the nitrile group-containing highly saturated copolymer rubber (A) and the nitrile group-containing highly saturated copolymer rubber (B), said nitrile group-containing highly saturated copolymer rubber (A) and said nitrile group-containing highly saturated copolymer rubber (B) both have iodine values of 120 or less, and the rubber composition contains said staple fibers (C) in 0.1 to 50 parts by weight with respect to 100 parts by weight of the total of said nitrile group-containing highly saturated copolymer rubber (A) and said nitrile group-containing highly saturated copolymer rubber (B). a content of the nitrile group-containing highly saturated copolymer rubber (B) is 5 to 75 wt% with respect to 100 wt% of the total of the nitrile group-containing highly saturated copolymer rubber (A) and the nitrile group-containing highly saturated copolymer rubber (B), said nitrile group-containing highly saturated copolymer rubber (A) and said nitrile group-containing highly saturated copolymer rubber (B) both have iodine values of 120 or less, and the rubber composition contains said staple fibers (C) in 0.1 to 50 parts by weight with respect to 100 parts by weight of the total of said nitrile group-containing highly saturated copolymer rubber (A) and said nitrile group-containing highly saturated copolymer rubber (B).
A process for manufacturing a black leaf tea product, the process comprising: • providing black leaf tea material having a moisture content of less than 20 wt.% as a starting material; and then • subjecting the black leaf tea starting material to a heat treatment step by contacting it with a heated surface at a temperature of 60°C to 100°C in the presence of steam for a duration of at least 2 minutes. • providing black leaf tea material having a moisture content of less than 20 wt.% as a starting material; and then • subjecting the black leaf tea starting material to a heat treatment step by contacting it with a heated surface at a temperature of 60°C to 100°C in the presence of steam for a duration of at least 2 minutes.