mhurhangee/patent-ind-claim-en huggingface dataset:
Process for flexible production of MTBE and isononanol comprising the steps of: a) providing a C4-hydrocarbon stream containing at least n-butenes (1-butene and 2-butene), n-butane and isobutane as a first input stream and distillatively separating at least a portion of the isobutane and at least a portion of the 1-butene from the first input stream, wherein the C4-hydrocarbon stream is a raffinate-II stream; b) using the isobutane separated from the first input stream and additional isobutane separated from a field butane stream or an FCC-C4 stream as a second input stream; c) sending the first input stream to an oligomerization in which the n-butenes are catalytically oligomerized to afford C8-olefins; d) sending the C8-olefins formed in the oligomerization in step c) to a hydroformylation in which C8-olefins are catalytically reacted with synthesis gas to afford C9-aldehydes; e) sending the C9-aldehydes from the hydroformylation in step d) to a hydrogenation in which C9-aldehydes are catalytically converted into isononanol; f) sending the second input stream to a dehydrogenation to obtain a dehydrogenation mixture containing at least isobutene and unconverted isobutane and optionally separating the isobutane from the dehydrogenation mixture; g) sending the isobutene from step f) to an MTBE or ETBE synthesis in which isobutene is catalytically reacted with methanol to afford MTBE or with ethanol to afford ETBE or to an isobutene dimerization in which isobutene is catalytically dimerized. a) providing a C4-hydrocarbon stream containing at least n-butenes (1-butene and 2-butene), n-butane and isobutane as a first input stream and distillatively separating at least a portion of the isobutane and at least a portion of the 1-butene from the first input stream, wherein the C4-hydrocarbon stream is a raffinate-II stream; b) using the isobutane separated from the first input stream and additional isobutane separated from a field butane stream or an FCC-C4 stream as a second input stream; c) sending the first input stream to an oligomerization in which the n-butenes are catalytically oligomerized to afford C8-olefins; d) sending the C8-olefins formed in the oligomerization in step c) to a hydroformylation in which C8-olefins are catalytically reacted with synthesis gas to afford C9-aldehydes; e) sending the C9-aldehydes from the hydroformylation in step d) to a hydrogenation in which C9-aldehydes are catalytically converted into isononanol; f) sending the second input stream to a dehydrogenation to obtain a dehydrogenation mixture containing at least isobutene and unconverted isobutane and optionally separating the isobutane from the dehydrogenation mixture; g) sending the isobutene from step f) to an MTBE or ETBE synthesis in which isobutene is catalytically reacted with methanol to afford MTBE or with ethanol to afford ETBE or to an isobutene dimerization in which isobutene is catalytically dimerized.
Printing machine for printing on a web (B), the machine comprising a first roll and a second roll between which the web (B) forms a loop (S), characterized in that a single-curve cup with suction openings and/or blower openings is disposed between the first roll and the second roll to pneumatically guide the loop (S) without contact and equidistantly relative to a major part of the length of curvature (L) of the cup .
A baseband module for a wireless device , wherein, as part of a position computation session, the baseband module is configured to: receive first configuration information, which is based on first location-related aid information from a first aid-data source in a first wireless network, wherein the wireless device is operational in the first wireless network; after the wireless device becomes operational in a second wireless network, receive second configuration information, which is based on combined location-related aid information, wherein the combined location-related information is based on a combination of the first location-related aid information and second location-related aid information from a second aid-data source in the second wireless network; and track and acquire a satellite (106a, 106b, io6x) based on the first configuration information and the second configuration information. receive first configuration information, which is based on first location-related aid information from a first aid-data source in a first wireless network, wherein the wireless device is operational in the first wireless network; after the wireless device becomes operational in a second wireless network, receive second configuration information, which is based on combined location-related aid information, wherein the combined location-related information is based on a combination of the first location-related aid information and second location-related aid information from a second aid-data source in the second wireless network; and track and acquire a satellite (106a, 106b, io6x) based on the first configuration information and the second configuration information.
Inline method for producing a spring strip profile for a slatted frame, which spring strip profile comprises at least one core strand formed by a fibre-reinforced plastic and at least one thermoplastic cover layer surrounding the core strand , comprising at least the following steps: - Joining several fibres, threads and/or filaments to form a fibre bundle (2.1); - Impregnating the fibre bundle (2.1) with a thermally activatable reaction resin, - Moulding the outer contour of the fibre bundle impregnated with the reaction resin (2.1); - Thermally activating the reaction resin (2.1) to form a cured core strand; - Introducing the core strand into an extruder head - Applying thermoplastic melt in the extruder head to form the cover layer on the spring strip profile ; - Cooling and calibrating the spring strip profile in a cooling and calibrating device characterized in that - in a winding machine the outer contour of the fibre bundle (2.1) is wrapped around by at least one thread or filament (2.2) supplied laterally in relation to the fibre bundle in at least one position and orientation; - in a heating section , before the core strand is introduced into the extruder head , a partial curing of the reaction resin in the wrapped outer layer of the fibre bundle (2.1) is effected and - in that the core strand is post-cured after extrusion of the cover layer . - Joining several fibres, threads and/or filaments to form a fibre bundle (2.1); - Impregnating the fibre bundle (2.1) with a thermally activatable reaction resin, - Moulding the outer contour of the fibre bundle impregnated with the reaction resin (2.1); - Thermally activating the reaction resin (2.1) to form a cured core strand; - Introducing the core strand into an extruder head - Applying thermoplastic melt in the extruder head to form the cover layer on the spring strip profile ; - Cooling and calibrating the spring strip profile in a cooling and calibrating device characterized in that - in a winding machine the outer contour of the fibre bundle (2.1) is wrapped around by at least one thread or filament (2.2) supplied laterally in relation to the fibre bundle in at least one position and orientation; - in a heating section , before the core strand is introduced into the extruder head , a partial curing of the reaction resin in the wrapped outer layer of the fibre bundle (2.1) is effected and - in that the core strand is post-cured after extrusion of the cover layer .
A scheduling method, wherein the method comprises: receiving (S102), by a first device, semi-persistent scheduling, SPS, configuration information from a base station, wherein the SPS configuration information is used to indicate an SPS resource configuration, the SPS resource configuration comprises more than one SPS resource used for vehicle to everything, V2X, service; receiving (SI04), by the first device, SPS activation information from the base station, wherein the SPS activation information is used to indicate an activated SPS resource, and the activated SPS resource is one or more SPS resources in the SPS resource configuration; selecting, by the first device, based on the one or more activated SPS resources and a service requirement of a service, an SPS resource that meets the service requirement of the service; and sending (S105), by the first device, SPS instruction information to the base station, wherein the SPS instruction information is used to instruct to use or not to use a SPS resource of the activated SPS resource. receiving (S102), by a first device, semi-persistent scheduling, SPS, configuration information from a base station, wherein the SPS configuration information is used to indicate an SPS resource configuration, the SPS resource configuration comprises more than one SPS resource used for vehicle to everything, V2X, service; receiving (SI04), by the first device, SPS activation information from the base station, wherein the SPS activation information is used to indicate an activated SPS resource, and the activated SPS resource is one or more SPS resources in the SPS resource configuration; selecting, by the first device, based on the one or more activated SPS resources and a service requirement of a service, an SPS resource that meets the service requirement of the service; and sending (S105), by the first device, SPS instruction information to the base station, wherein the SPS instruction information is used to instruct to use or not to use a SPS resource of the activated SPS resource.
Link device between a cradle of a motor vehicle and a structural element of the body of said vehicle, said device comprising a single-piece ear having a base for connection to the cradle as well as an upper portion for connection to a structural element of the body, the ear having, between the base and the upper portion, a lateral portion comprising a bent U-shape for receiving a bearing for guiding an anti-roll bar , the lateral portion including two plane surfaces at the extremities of the U-shape for the attachment of a compression plate for the guide bearing , the lateral portion being positioned towards the rear of the vehicle when the ear is attached to the cradle, characterized in that the wall delimiting the bent shape of the lateral portion exhibits a local reduction in thickness .
A gas turbine engine assembly comprising: a gas turbine engine turbine frame having an outer radial casing ; a fairing disposed within the gas turbine engine turbine frame to form a main gas path internal to the fairing and a secondary gas path between the fairing and the turbine frame , characterised by the fairing comprising an outer radial platform and a first rib ; the first rib extending from an aft end of the outer radial platform of the fairing towards the outer radial casing of the turbine frame ; a mount affixed to an aft end of the outer radial casing of the turbine frame , the mount comprising a flange-shaped ring and slots to receive portions of the first rib therein; and a first plate spaced from a surface of the outer radial casing of the turbine frame and generally conforming to the shape of said surface, a portion of the first plate being affixed to the mount and wherein the first plate and the turbine frame form a passageway between the outer radial casing of the turbine frame and the first plate that directs a secondary gas flow from the secondary gas path along the surface of the outer radial casing of the turbine frame . a gas turbine engine turbine frame having an outer radial casing ; a fairing disposed within the gas turbine engine turbine frame to form a main gas path internal to the fairing and a secondary gas path between the fairing and the turbine frame , characterised by the fairing comprising an outer radial platform and a first rib ; the first rib extending from an aft end of the outer radial platform of the fairing towards the outer radial casing of the turbine frame ; a mount affixed to an aft end of the outer radial casing of the turbine frame , the mount comprising a flange-shaped ring and slots to receive portions of the first rib therein; and a first plate spaced from a surface of the outer radial casing of the turbine frame and generally conforming to the shape of said surface, a portion of the first plate being affixed to the mount and wherein the first plate and the turbine frame form a passageway between the outer radial casing of the turbine frame and the first plate that directs a secondary gas flow from the secondary gas path along the surface of the outer radial casing of the turbine frame .
Cartridge monitoring system for industrial air filtering plants, comprising: - at least one air filtering cartridge installable inside an air filtering plant ; - at least one radio frequency identification device associated with said at least one cartridge and configured to transmit at least one authenticity code relative to said at least one cartridge ; - radio frequency communication means associable with the air filtering plant and configured to communicate with the radio frequency identification device to receive said at least one authenticity code relative to said at least one cartridge ; - processing and verification means of said at least one authenticity code, connected to said radio frequency communication means and configured to verify the authenticity of said at least one authenticity code relative to said at least one cartridge ; characterized in that said processing and verification means are comprised in a control central unit mounted on said industrial air filtering plant and configured to manage cleaning means mounted on said industrial air filtering plant and adapted to clean said at least one cartridge . - at least one air filtering cartridge installable inside an air filtering plant ; - at least one radio frequency identification device associated with said at least one cartridge and configured to transmit at least one authenticity code relative to said at least one cartridge ; - radio frequency communication means associable with the air filtering plant and configured to communicate with the radio frequency identification device to receive said at least one authenticity code relative to said at least one cartridge ; - processing and verification means of said at least one authenticity code, connected to said radio frequency communication means and configured to verify the authenticity of said at least one authenticity code relative to said at least one cartridge ;
A method performed by user equipment, the method comprising the steps of: on reception by the user equipment of a trigger instructing modification of an access stratum radio bearer, the user equipment retaining an associated non-access stratum bearer; in response to said trigger, the user equipment modifying said access stratum radio bearer to have updated security credentials, wherein said step of modifying comprises a re-establishment of a packet data convergence protocol layer with updated security credentials and wherein said re-establishment of said packet data convergence protocol layer maintains packet data convergence protocol data packets and sequence numbers; and during said modifying of said access stratum radio bearer, maintaining an identifier for said associated non-access stratum bearer. on reception by the user equipment of a trigger instructing modification of an access stratum radio bearer, the user equipment retaining an associated non-access stratum bearer; in response to said trigger, the user equipment modifying said access stratum radio bearer to have updated security credentials, wherein said step of modifying comprises a re-establishment of a packet data convergence protocol layer with updated security credentials and wherein said re-establishment of said packet data convergence protocol layer maintains packet data convergence protocol data packets and sequence numbers; and during said modifying of said access stratum radio bearer, maintaining an identifier for said associated non-access stratum bearer.
A fitting system for windows, doors or the like which comprise at least one main leaf and a fanlight arranged thereabove, having a turn fitting associated with the main leaf and comprising a central closure ; and having a tilt fitting associated with the fanlight , characterized in that the turn fitting associated with the main leaf is configured for arrangement in a leaf groove and is coupled in a force-transmitting and/or shape-matched manner via a coupling fitting to the tilt fitting associated with the fanlight such that the tilt fitting of the fanlight can also be actuated via the central closure associated with the main leaf , with the tilt fitting associated with the fanlight comprising a controlled opening stay via which the fanlight is adjustable between a closed position and a tilt position via the coupling fitting by a corresponding actuation of the central closure associated with the main leaf .
A radiation detector comprising: a sensor substrate including a flexible base member and a layer provided on a first surface of the base member and formed with a plurality of pixels that accumulates electrical charge generated in response to light converted from radiation; a conversion layer provided on the first surface side of the sensor substrate , the conversion layer converts radiation into the light; and an elastic layer provided on the opposite side of the conversion layer to a side provided with the sensor substrate, the elastic layer having a greater restoring force with respect to bending than the sensor substrate ; characterized in that : the base member comprises a resin comprising plastic and a fine particle layer, the fine particle layer comprising inorganic fine particles , the inorganic fine particles having a mean particle size of from 0.05 μm to 2.5 μm. a sensor substrate including a flexible base member and a layer provided on a first surface of the base member and formed with a plurality of pixels that accumulates electrical charge generated in response to light converted from radiation; a conversion layer provided on the first surface side of the sensor substrate , the conversion layer converts radiation into the light; and an elastic layer provided on the opposite side of the conversion layer to a side provided with the sensor substrate, the elastic layer having a greater restoring force with respect to bending than the sensor substrate ; characterized in that : the base member comprises a resin comprising plastic and a fine particle layer, the fine particle layer comprising inorganic fine particles , the inorganic fine particles having a mean particle size of from 0.05 μm to 2.5 μm.
. An emulsion production microfluidic device (100,100',100") which comprises: - A first channel (10,10',10"), comprising an entry port configured to inject, into the first channel (10,10',10"), a phase to be dispersed , - A second channel (20,20',20"), comprising an entry port (23',23") configured to inject a continuous phase into this second channel (20,20',20"), and an emulsion exit port (24',24") configured to extract an emulsion from the device (100,100',100"), and - At least one array of microchannels (30,30',30"), arranged side by side, each microchannel (30,30',30") comprising an inlet from the first channel (10,10',10"), and an outlet to the second channel (20,20',20"), a height hO of each of the microchannels (30,30',30") being smaller than a height h1 of the first channel (10,10',10"), the device being characterized in that the second channel (20,20',20") comprises a first part (21,21',21") connected to the outlet of each microchannel (30,30',30") and at least a second part (22,22',22") along the first part (21,21',21"), the first part (21,21',21") being between the array of microchannels (30,30',30") and the second part (22,22',22"), the first part (21,21',21") having a height h2a greater that the height hO of each microchannel (30,30',30"), and the second part (22,22',22") having a height h2b greater than the height h2a of the first part (21,21',21"). - A first channel (10,10',10"), comprising an entry port configured to inject, into the first channel (10,10',10"), a phase to be dispersed , - A second channel (20,20',20"), comprising an entry port (23',23") configured to inject a continuous phase into this second channel (20,20',20"), and an emulsion exit port (24',24") configured to extract an emulsion from the device (100,100',100"), and - At least one array of microchannels (30,30',30"), arranged side by side, each microchannel (30,30',30") comprising an inlet from the first channel (10,10',10"), and an outlet to the second channel (20,20',20"), a height hO of each of the microchannels (30,30',30") being smaller than a height h1 of the first channel (10,10',10"),
A method, implemented by a wireless transmit/receive unit, WTRU, for controlling enhanced dedicated channel, E-DCH, transmissions, the method comprising: receiving an uplink scheduling absolute grant; processing the uplink scheduling absolute grant to calculate a serving grant; determining that a hybrid automatic repeat request, H-ARQ, process for scheduled data is not available or that scheduled data is not available; determining that a H-ARQ process for non-scheduled data and non-scheduled data is available; determining that there is no non-scheduled grant available; identifying a H-ARQ process to use for transmission in an upcoming transmission time interval, TTI; determining that there is a scheduling information triggering event; generating scheduling information bits in response to the scheduling information triggering event; calculating a remaining power available for the upcoming TTI based on a maximum allowed power for the WTRU; performing E-DCH transport format combination, E-TFC, restriction based on the remaining power; selecting an E-TFC from a set of E-TFCs remaining after E-TFC restriction; generating a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU, that includes the scheduling information bits; and transmitting the MAC-e PDU in the upcoming TTI using the identified H-ARQ process. receiving an uplink scheduling absolute grant; processing the uplink scheduling absolute grant to calculate a serving grant; determining that a hybrid automatic repeat request, H-ARQ, process for scheduled data is not available or that scheduled data is not available; determining that a H-ARQ process for non-scheduled data and non-scheduled data is available; determining that there is no non-scheduled grant available; identifying a H-ARQ process to use for transmission in an upcoming transmission time interval, TTI; determining that there is a scheduling information triggering event; generating scheduling information bits in response to the scheduling information triggering event; calculating a remaining power available for the upcoming TTI based on a maximum allowed power for the WTRU; performing E-DCH transport format combination, E-TFC, restriction based on the remaining power; selecting an E-TFC from a set of E-TFCs remaining after E-TFC restriction; generating a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU, that includes the scheduling information bits; and transmitting the MAC-e PDU in the upcoming TTI using the identified H-ARQ process.
A biomass composition, containing: powder of parenchyma cells of a plant containing a saccharide; a multivalent carboxylic acid; and an intermediate product of juice of the plant and a multivalent carboxylic acid. powder of parenchyma cells of a plant containing a saccharide; a multivalent carboxylic acid; and an intermediate product of juice of the plant and a multivalent carboxylic acid.