mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: configuring with a first cell group including at least one first cell and a second cell group including at least one second cell served by an e-Node B, eNB, (S1401, S1601); receiving first information for configuring with Discontinuous Reception, DRX, operation (S1403, S1603), wherein the first information includes information on subframes in which the UE has to monitor a first Physical Downlink Control Channel, PDCCH, signal for the first cell group and a second PDCCH signal for the second cell group; receiving second information for configuring with additional monitoring period for the second cell group (S1405), wherein the second information includes information on subframes in which the UE has to monitor the second PDCCH signal for the second cell group; monitoring the first PDCCH signal on a first cell in subframes based on the first information (S1407); and monitoring the second PDCCH signal on a second cell in subframes based on the first information and the second information (S1409), characterized by the method further comprising: when the UE receives a PDCCH for uplink grant or downlink assignment through the second PDCCH signal based on the second information, stopping monitoring the first PDCCH signal and keeping monitoring an additional second PDCCH signal by restarting a drx-Inactivity timer. configuring with a first cell group including at least one first cell and a second cell group including at least one second cell served by an e-Node B, eNB, (S1401, S1601); receiving first information for configuring with Discontinuous Reception, DRX, operation (S1403, S1603), wherein the first information includes information on subframes in which the UE has to monitor a first Physical Downlink Control Channel, PDCCH, signal for the first cell group and a second PDCCH signal for the second cell group; receiving second information for configuring with additional monitoring period for the second cell group (S1405), wherein the second information includes information on subframes in which the UE has to monitor the second PDCCH signal for the second cell group; monitoring the first PDCCH signal on a first cell in subframes based on the first information (S1407); and monitoring the second PDCCH signal on a second cell in subframes based on the first information and the second information (S1409), characterized by the method further comprising: when the UE receives a PDCCH for uplink grant or downlink assignment through the second PDCCH signal based on the second information, stopping monitoring the first PDCCH signal and keeping monitoring an additional second PDCCH signal by restarting a drx-Inactivity timer.
A method for recovering one or more water immiscible compounds from a microbial biomass, comprising the steps of: a. treating the microbial biomass by: i. acidifying the microbial biomass; and ii. disrupting the microbial biomass; to form an acidified, disrupted microbial biomass; b. heating the acidified, disrupted microbial biomass to form a heated, acidified, disrupted microbial biomass; c. contacting the heated, acidified, disrupted microbial biomass with a disulfonated surfactant; d. recovering the one or more water immiscible compounds; wherein the one or more water immiscible compounds are isoprenoids. a. treating the microbial biomass by: i. acidifying the microbial biomass; and ii. disrupting the microbial biomass; to form an acidified, disrupted microbial biomass; i. acidifying the microbial biomass; and ii. disrupting the microbial biomass; to form an acidified, disrupted microbial biomass; b. heating the acidified, disrupted microbial biomass to form a heated, acidified, disrupted microbial biomass; c. contacting the heated, acidified, disrupted microbial biomass with a disulfonated surfactant; d. recovering the one or more water immiscible compounds;
Mast element, in particular leader element, for a construction machine with an elongate hollow mast profile which, on a front side along a longitudinal side of the mast, is provided with two guide strips , by which a linear guide for a mast carriage is formed along the front side, wherein at least one guide strip is designed as part of a guide profile , on which, formed in one piece with the guide strip , at least one connecting web is designed that extends away from guide strip , wherein in order to form the hollow mast profile elongate wall elements are provided, wherein the at least one connecting web is connected to at least one elongate wall element , wherein the wall elements and the at least one connecting web are welded to each other in the longitudinal direction of the mast, and wherein the welded seam is arranged away from the guide strip and away from a guide region of the guide strip . wherein at least one guide strip is designed as part of a guide profile , on which, formed in one piece with the guide strip , at least one connecting web is designed that extends away from guide strip , wherein in order to form the hollow mast profile elongate wall elements are provided, wherein the at least one connecting web is connected to at least one elongate wall element , wherein the wall elements and the at least one connecting web are welded to each other in the longitudinal direction of the mast, and wherein the welded seam is arranged away from the guide strip and away from a guide region of the guide strip .
A method for access control in an access control system for people or vehicles comprising at least one access control device, each access control device having at least one antenna in each case, the checking of access authorization taking place on the basis of the evaluation of at least one beacon, which is sent from a data carrier by means of a first standard for wireless communication in an advertising mode at regular intervals to an access control device, which beacon contains an ID, to which at least one access authorization is uniquely assigned, and a unique identifier (TID) of the data carrier, characterized in that the beacons additionally in each case contain a unique beacon ID for the respective data carrier sending the beacon, wherein due to the combination of the unique identifier of the data carrier and the beacon ID, which is unique for the data carrier , unique identification of every beacon transmitted by each data carrier is enabled, wherein the identification and localization of the data carriers is carried out at the at least one antenna of an access control device by means of an evaluation of the RSSIs of the beacons sent from the data carriers , wherein due to the unique identification of every beacon transmitted from each data carrier by means of the combination of the unique identifier of the data carrier and the beacon ID, which is unique for the data carrier, it is ensured that the RSSI values of the same beacon of a data carrier are called upon in each case in the context of the RSSI evaluation, wherein due to the RSSI evaluation, the data carrier closest to an access control device in the access direction is determined and the ID sent from this data carrier , to which at least one access authorization is uniquely assigned, is evaluated in order to grant access in the case of valid access authorization, and in that the unique beacon ID is generated by means of an algorithm which is also stored in the receiving access control devices or in the access control system and is called upon for evaluating the beacon IDs, wherein the temporal sequence of the values of the beacon IDs of the beacons sent from a data carrier is determined according to a predetermined pattern or according to a predetermined function.
A method, comprising: an apparatus determining content of a data message to be sent on a control channel; and the apparatus selecting between ciphering and not ciphering the data message based on the determined content; characterized in that for the case in which the determined content indicates that a data block comprises a short message service message, the selecting is for ciphering the data block; and otherwise, if the determined content indicates that the data block comprises a system information message, the selecting is for not ciphering the data block. an apparatus determining content of a data message to be sent on a control channel; and the apparatus selecting between ciphering and not ciphering the data message based on the determined content; characterized in that for the case in which the determined content indicates that a data block comprises a short message service message, the selecting is for ciphering the data block; and otherwise, if the determined content indicates that the data block comprises a system information message, the selecting is for not ciphering the data block.
A method for storing hanging goods in an automated storage system comprising a stationary storage rack with storage regions for the hanging goods arranged in storage levels lying one above the other, and at least one goods transport device (7; 110; 117) having a base frame , which goods transport device (7; 110; 117) is movable in front of the storage rack in a first direction (x-direction), and at least a storage and retrieval device (33; 111) having a goods displacement device (42; 116) which is movable relative to the base frame in a second direction (z-direction) perpendicular to the first direction (x-direction), wherein the hanging good is moved by means of the goods displacement device (42; 116) between a goods receiving carrier assigned to the storage region and a goods receiving carrier assigned to the goods transport device (7; 110; 117), wherein the goods receiving carriers in the storage regions remain in the storage rack , and wherein the hanging goods on the goods receiving carriers each define a hanging plane extending in a direction perpendicular to the goods receiving carriers , and wherein the hanging goods are each stored and transported by means of a clothes hanger on the goods receiving carriers , characterized in that the goods displacement device (42; 116) grips at least one clothes hanger by means of a gripping unit (71; 115), which is mounted on the goods displacement device (42; 116), and moves the hanging good between the goods receiving carriers .
A dual-flow turbojet engine including a central shaft (AC) surrounded by a high-pressure spool (CH), coaxial and rotatably independent, this turbojet engine including from upstream (AM) to downstream (AV) according to the direction of circulation of the flow that passes therethrough when it is operating: - a fan driven by the central shaft (AC); - a high-pressure compressor and a high-pressure turbine belonging to the high-pressure spool (CH); - an inter-turbine casing ; - a low-pressure turbine ; - an exhaust casing ; this turbojet engine further including: - a low-pressure rotor (RB) which surrounds the central shaft (AC) and which comprises the low-pressure turbine ; - a rotor upstream journal carried by the inter-turbine casing and which rotatably guides the low-pressure rotor (RB) while being located downstream of the high-pressure compressor ; - a rotor downstream journal carried by the exhaust casing , and which rotatably guides the low-pressure rotor (RB); - a reduction gear through which the low-pressure rotor (RB) drives the central shaft (AC), this reduction gear being located downstream of the rotor downstream journal ; - a shaft downstream journal which rotatably guides the central shaft (AC) while being located downstream of the rotor downstream journal . - a fan driven by the central shaft (AC); - a high-pressure compressor and a high-pressure turbine belonging to the high-pressure spool (CH); - an inter-turbine casing ; - a low-pressure turbine ; - an exhaust casing ; - a low-pressure rotor (RB) which surrounds the central shaft (AC) and which comprises the low-pressure turbine ; - a rotor upstream journal carried by the inter-turbine casing and which rotatably guides the low-pressure rotor (RB) while being located downstream of the high-pressure compressor ; - a rotor downstream journal carried by the exhaust casing , and which rotatably guides the low-pressure rotor (RB); - a reduction gear through which the low-pressure rotor (RB) drives the central shaft (AC), this reduction gear being located downstream of the rotor downstream journal ; - a shaft downstream journal which rotatably guides the central shaft (AC) while being located downstream of the rotor downstream journal .
A microscope apparatus comprising: a microscope section configured to perform magnified observation of a subject's eye while obtaining a red reflex caused by irradiating a fundus of the subject's eye with illuminating light; a holding section configured to hold the microscope section ; and a tilting section configured to tilt an illumination optical axis which is an optical axis of an illumination optical system , and an observation optical axis which is an optical axis of an observation optical system in the microscope section , around a point in an interior of the subject's eye as a tilt reference point, while maintaining a substantially coaxial state between the illumination optical axis and the observation optical axis. a microscope section configured to perform magnified observation of a subject's eye while obtaining a red reflex caused by irradiating a fundus of the subject's eye with illuminating light; a holding section configured to hold the microscope section ; and a tilting section configured to tilt an illumination optical axis which is an optical axis of an illumination optical system , and an observation optical axis which is an optical axis of an observation optical system in the microscope section , around a point in an interior of the subject's eye as a tilt reference point, while maintaining a substantially coaxial state between the illumination optical axis and the observation optical axis.
A method of identifying a selected phenotype associated with a synthetic modular polypeptide in a cell ex vivo / in vitro, the method comprising: a) introducing a barcoded library of nucleic acids into host cells, thereby generating a heterogeneous population of genetically modified host cells, wherein the barcoded library of nucleic acids comprises a plurality of members, each of which plurality of members comprises a nucleotide sequence encoding a different synthetic modular polypeptide, the nucleotide sequence comprising: a coding region comprising two or more coding sequences encoding two or more variable modules, wherein the two or more coding sequences are in-frame with each other; and a barcode region comprising two or more unique barcodes, wherein each variable module in the coding region is correlated with a specific unique barcode in the barcode region; b) identifying a genetically modified host cell within the heterogeneous population that displays the selected phenotype in response to a stimulus; and (c) from the identified host cell of (b), identifying and/or quantifying the barcode region by sequencing, thereby identifying the synthetic modular polypeptide and/or module thereof producing the selected phenotype. a) introducing a barcoded library of nucleic acids into host cells, thereby generating a heterogeneous population of genetically modified host cells, wherein the barcoded library of nucleic acids comprises a plurality of members, each of which plurality of members comprises a nucleotide sequence encoding a different synthetic modular polypeptide, the nucleotide sequence comprising: a coding region comprising two or more coding sequences encoding two or more variable modules, wherein the two or more coding sequences are in-frame with each other; and a barcode region comprising two or more unique barcodes, wherein each variable module in the coding region is correlated with a specific unique barcode in the barcode region; b) identifying a genetically modified host cell within the heterogeneous population that displays the selected phenotype in response to a stimulus; and (c) from the identified host cell of (b), identifying and/or quantifying the barcode region by sequencing, thereby identifying the synthetic modular polypeptide and/or module thereof producing the selected phenotype.
A storage device having an inner space for storing a pet care device , comprising: a first case having a first inner body and a sterilizer , the sterilizer being configured to emit ultraviolet light to the pet care device ; a second case having a second inner body being configured to accommodate the pet care device ; and a hinge rotatably connecting first sides of the first and second cases , wherein the inner space is formed inside the first case and the second case ; characterized in that the first and the second inner bodies include a material capable of diffusing ultraviolet light. a first case having a first inner body and a sterilizer , the sterilizer being configured to emit ultraviolet light to the pet care device ; a second case having a second inner body being configured to accommodate the pet care device ; and a hinge rotatably connecting first sides of the first and second cases , wherein the inner space is formed inside the first case and the second case ; characterized in that the first and the second inner bodies include a material capable of diffusing ultraviolet light.
A method of converting a firearm grip module from semi- to full-auto capability, the method comprising: removing a first mode selector lever from the firearm grip module ; removing a semi-auto trigger assembly from the firearm grip module ; cutting or abrading a removable molded-in stop arranged atop a selector track to form a smooth transition between a semi-auto indentation in the track and a full-auto indentation in the track ; coupling a full-auto trigger assembly into the firearm grip module ; and coupling a second mode selector lever to the full-auto trigger assembly. removing a first mode selector lever from the firearm grip module ; removing a semi-auto trigger assembly from the firearm grip module ; cutting or abrading a removable molded-in stop arranged atop a selector track to form a smooth transition between a semi-auto indentation in the track and a full-auto indentation in the track ; coupling a full-auto trigger assembly into the firearm grip module ; and coupling a second mode selector lever to the full-auto trigger assembly.
Lighting device (DE) comprising a light source (SL) capable of delivering photons to a predefined location (EP) which must ensure at least one photometric function further comprising a screen (EC) placed in front of said predefined location ( EP) and comprising an alternation of first (Z1) and second (Z2) zones, defining a light band (BL), the first (Z1) and second (Z2) zones respectively having a first light transmission coefficient and a second coefficient of light transmission strictly lower than said first light transmission coefficient, so that the light resulting from the photons passing through each first zone (Z1) has an intensity strictly greater than the intensity of the light resulting from the photons passing through each second zone (Z2); said first zones (Z1) have a first color and said second zones (Z2) have a second color; said first color is a so-called transparent white crystal color and said second color is opaque black; said screen (EC) is a part in which said first zones (Z1) are made of a first plastic material having said first color and said second zones (Z2) are made of a second plastic material having said second color; said part (EC) comprises first (SP1) and second (SP2) sub-parts made respectively of said first and second plastic materials, said first sub-part (SP1) being furthermore fixedly secured to a part of at least one external face of said second sub-part (SP2), oriented opposite to said predefined location (EP), and said second sub-part (SP2) comprising through holes (TT) in front of portions of said first sub-part ( SP1) which respectively define said first zones (Z1); said light source (SL) comprises at least one light-emitting diode; said light source (SL) comprises a light guide (GL) suitable for transferring said generated photons, received on an input face, to a front face (FV) located just before said predefined location (EP) and suitable for transferring these photons in the latter (EP). said first zones (Z1) have a first color and said second zones (Z2) have a second color; said first color is a so-called transparent white crystal color and said second color is opaque black; said screen (EC) is a part in which said first zones (Z1) are made of a first plastic material having said first color and said second zones (Z2) are made of a second plastic material having said second color; said part (EC) comprises first (SP1) and second (SP2) sub-parts made respectively of said first and second plastic materials, said first sub-part (SP1) being furthermore fixedly secured to a part of at least one external face of said second sub-part (SP2), oriented opposite to said predefined location (EP), and said second sub-part (SP2) comprising through holes (TT) in front of portions of said first sub-part ( SP1) which respectively define said first zones (Z1); said light source (SL) comprises at least one light-emitting diode; said light source (SL) comprises a light guide (GL) suitable for transferring said generated photons, received on an input face, to a front face (FV) located just before said predefined location (EP) and suitable for transferring these photons in the latter (EP).
A method for producing an MSE-type zeolite comprising the steps of: mixing a silica source, an alumina source, an alkali source, tetraethylammonium ions and water so as to obtain a reaction mixture having a composition represented by molar ratios indicated below: SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); using an MSE-type zeolite having a SiO 2 /Al 2 O 3 molar ratio of 12 or more and 25 or less as a seed crystal and adding this to the reaction mixture at a ratio of 5% by mass or more and 30% by mass or less with respect to the silica component in the reaction mixture; and heating the reaction mixture to which the seed crystal has been added, at a temperature of not less than 100°C and less than 200°C in a hermetically sealed manner. mixing a silica source, an alumina source, an alkali source, tetraethylammonium ions and water so as to obtain a reaction mixture having a composition represented by molar ratios indicated below: SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); using an MSE-type zeolite having a SiO 2 /Al 2 O 3 molar ratio of 12 or more and 25 or less as a seed crystal and adding this to the reaction mixture at a ratio of 5% by mass or more and 30% by mass or less with respect to the silica component in the reaction mixture; and heating the reaction mixture to which the seed crystal has been added, at a temperature of not less than 100°C and less than 200°C in a hermetically sealed manner.