mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the production of a formaldehyde-stabilised urea product comprising the steps of (a) generating a synthesis gas comprising hydrogen, nitrogen, carbon monoxide, carbon dioxide and steam in a synthesis gas generation unit; (b) recovering carbon dioxide from the synthesis gas to form a carbon dioxide-depleted synthesis gas; (c) synthesising methanol from the carbon dioxide-depleted synthesis gas in a methanol synthesis unit and recovering the methanol and a methanol synthesis off-gas comprising nitrogen, hydrogen and residual carbon monoxide; (d) subjecting at least a portion of the recovered methanol to oxidation with air in a process comprising subjecting the methanol to oxidation with air in a formaldehyde production unit thereby producing a formaldehyde-containing stream, separating the formaldehyde-containing stream into a formaldehyde product stream and a formaldehyde vent gas stream, wherein said recovered methanol forms at least a portion of the feed to said formaldehyde production unit; (e) subjecting the methanol synthesis off-gas to methanation in a methanation reactor containing a methanation catalyst to form an ammonia synthesis gas; (f) synthesising ammonia from the ammonia synthesis gas in an ammonia production unit and recovering the ammonia; (g) reacting a portion of the ammonia and at least a portion of the recovered carbon dioxide stream in a urea production unit to form a urea stream; and (h) stabilising the urea by mixing the urea stream and a stabiliser prepared using formaldehyde recovered from the formaldehyde production unit, wherein the formaldehyde vent gas stream separated in step (d), optionally after treatment in a vent gas treatment unit, is passed to one or more stages of (i) synthesis gas generation, (ii) carbon dioxide removal, (iii) methanol synthesis or (iv) urea synthesis.
An apparatus configured to be employed in a base station comprising: one or more processors configured to: process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT, , or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network ; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, ; and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow. one or more processors configured to: process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT, , or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network ; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, ; and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow. process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT, , or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network ; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, ; and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow.
A system comprising a flatbed unmanned aerial vehicle carrying multiple sub unmanned aerial vehicles, said system comprising: - a combination of a mother unmanned aerial vehicle, Mother UAV , and multiple autonomous sub unmanned aerial vehicles, called Sub UAVs , wherein said multiple Sub UAVs are carried on a flatbed area member of the Mother UAV , wherein said flatbed area member consists of a narrow front member and a wider back section member designed to create the necessary space to carry various sizes of said multiple Sub UAVs , and to provide sufficient space to the multiple Sub UAVs to maneuver, eject and land on the flatbed area member , and wherein the Mother UAV is provided with a mechanical locking system wherein when each Sub UAV is loaded or lands on the flatbed area member of the Mother UAV , the Sub UAV locks in firmly with said mechanical locking system; - a deploying mechanism adapted to eject the multiple Sub UAVs from the Mother UAV in mid air; - a recovering mechanism adapted to receive said multiple Sub UAVs back on the flatbed area member of the Mother UAV in mid air; - an interlink communication system adapted to enable the Mother UAV and the multiple Sub UAVs to communicate with each other via satellite and remote control technology to send and receive at least one, or number of command signals, communication signals, and to communicate with moveable and un-moveable data stations. - a combination of a mother unmanned aerial vehicle, Mother UAV , and multiple autonomous sub unmanned aerial vehicles, called Sub UAVs , wherein said multiple Sub UAVs are carried on a flatbed area member of the Mother UAV , wherein said flatbed area member consists of a narrow front member and a wider back section member designed to create the necessary space to carry various sizes of said multiple Sub UAVs , and to provide sufficient space to the multiple Sub UAVs to maneuver, eject and land on the flatbed area member , and wherein the Mother UAV is provided with a mechanical locking system wherein when each Sub UAV is loaded or lands on the flatbed area member of the Mother UAV , the Sub UAV locks in firmly with said mechanical locking system; - a deploying mechanism adapted to eject the multiple Sub UAVs from the Mother UAV in mid air; - a recovering mechanism adapted to receive said multiple Sub UAVs back on the flatbed area member of the Mother UAV in mid air; - an interlink communication system adapted to enable the Mother UAV and the multiple Sub UAVs to communicate with each other via satellite and remote control technology to send and receive at least one, or number of command signals, communication signals, and to communicate with moveable and un-moveable data stations.
A downhole wireline machining tool string for increasing an inner diameter (ID s ) of a well tubular metal structure in a well , the downhole wireline machining tool string having a longitudinal axis and comprising: - a rotatable tool part comprising a machining tool having a first end part , a second end part , a diameter (D T ) and a circumference (C T ), and - a stationary tool part comprising: - a driving unit configured to rotate the rotatable tool part and powered through the wireline, characterized in that the machining tool comprises a body having an outer face , and a plurality of inserts , each insert having a length (L) along the longitudinal axis, and the inserts projecting from the outer face of the body and being distributed around the circumference, the first end part being arranged closest to the stationary tool part , and in that the machining tool has a bore arranged coincidently with a centre axis of the machining tool around which the rotatable tool part rotates, the bore extending into and through the second end part. - a rotatable tool part comprising a machining tool having a first end part , a second end part , a diameter (D T ) and a circumference (C T ), and - a stationary tool part comprising: - a driving unit configured to rotate the rotatable tool part and powered through the wireline, characterized in that the machining tool comprises a body having an outer face , and a plurality of inserts , each insert having a length (L) along the longitudinal axis, and the inserts projecting from the outer face of the body and being distributed around the circumference, the first end part being arranged closest to the stationary tool part , and in that the machining tool has a bore arranged coincidently with a centre axis of the machining tool around which the rotatable tool part rotates, the bore extending into and through the second end part. - a driving unit configured to rotate the rotatable tool part and powered through the wireline, characterized in that the machining tool comprises a body having an outer face , and a plurality of inserts , each insert having a length (L) along the longitudinal axis, and the inserts projecting from the outer face of the body and being distributed around the circumference, the first end part being arranged closest to the stationary tool part , and in that the machining tool has a bore arranged coincidently with a centre axis of the machining tool around which the rotatable tool part rotates, the bore extending into and through the second end part.
A shiftable memory comprising: a shift register having a plurality of memory cells to store data including a contiguous subset the contiguous subset having a size that is smaller than a total size of the memory; and a controller to select the contiguous subset of data stored by the shift register and to direct the shift register to shift the selected contiguous subset from a first location to a second location within the shift register, the selected contiguous subset having a length that is less than a total length of the shift register, wherein the shift occurs entirely within the shift register; characterised by the controller comprising an augmented decoder which further comprises a conventional decoder and an output circuit configured to implement a ripple cascade to assert word lines corresponding to locations of the contiguous subset the output circuit comprising: a first plurality of latches configured to set a starting point of the ripple cascade at a output of the augmented decoder; and a second plurality of latches configured to set a stopping point of the ripple cascade at the output of the augmented decoder; wherein each memory cell of the shift register comprises a plurality of memory locations to store data bits corresponding to a data word, a plurality of the data bits defining a width of the shift register. a shift register having a plurality of memory cells to store data including a contiguous subset the contiguous subset having a size that is smaller than a total size of the memory; and a controller to select the contiguous subset of data stored by the shift register and to direct the shift register to shift the selected contiguous subset from a first location to a second location within the shift register, the selected contiguous subset having a length that is less than a total length of the shift register, wherein the shift occurs entirely within the shift register; characterised by the controller comprising an augmented decoder which further comprises a conventional decoder and an output circuit configured to implement a ripple cascade to assert word lines corresponding to locations of the contiguous subset the output circuit comprising: a first plurality of latches configured to set a starting point of the ripple cascade at a output of the augmented decoder; and a second plurality of latches configured to set a stopping point of the ripple cascade at the output of the augmented decoder; wherein each memory cell of the shift register comprises a plurality of memory locations to store data bits corresponding to a data word, a plurality of the data bits defining a width of the shift register. a first plurality of latches configured to set a starting point of the ripple cascade at a output of the augmented decoder; and a second plurality of latches configured to set a stopping point of the ripple cascade at the output of the augmented decoder; wherein each memory cell of the shift register comprises a plurality of memory locations to store data bits corresponding to a data word, a plurality of the data bits defining a width of the shift register.
Process comprising the process steps of: a) initially charging a compound Y, wherein Y is a five-membered ring in which at least one carbon atom has been replaced by a nitrogen atom; b) adding P(NX 2 ) 3 , wherein X is -(C 1 -C 6 )-alkyl; c) adding a compound according to the formula (I): wherein R 1 , R 2 , R 3 are selected from: -H, -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -(C 6 -C 10 )-aryl, -CN, -NO 2 . a) initially charging a compound Y, wherein Y is a five-membered ring in which at least one carbon atom has been replaced by a nitrogen atom; b) adding P(NX 2 ) 3 , wherein X is -(C 1 -C 6 )-alkyl; c) adding a compound according to the formula (I):
A joined body comprising: a first member having a pipe shape; and a second member including a wall portion having a plate shape, and a flange portion having a cylinder shape and provided with an insertion hole through which the first member is inserted, wherein in a state where the first member is inserted into the insertion hole of the flange portion of the second member , the first member and the second member are joined with the first member pipe-expanded, characterized in that a material of the second member is larger than a material of the first member in a spring-back amount. a first member having a pipe shape; and a second member including a wall portion having a plate shape, and a flange portion having a cylinder shape and provided with an insertion hole through which the first member is inserted, wherein in a state where the first member is inserted into the insertion hole of the flange portion of the second member , the first member and the second member are joined with the first member pipe-expanded, characterized in that a material of the second member is larger than a material of the first member in a spring-back amount.
A curable powder coating composition comprising: one or more hydroxyl or carboxyl functional polyester(s) (A) in an amount of 9-90 weight percent based on the overall powder coating composition, the functional polyester(s) (A) being characterized by a Tg of more than 35°C; one or more hydroxyl or carboxyl functional acrylic resin(s) (B) in an amount of 9-90 weight percent based on the overall powder coating composition, the hydroxyl or carboxyl functional acrylic resin(s) (B) being characterized by a Tg of more than 35°C; and one or more cross linker(s) (C) able to react with (A) and/or (B) in an amount of 1-50 weight percent based on the overall powder coating composition, wherein the hydroxyl- or acid-value of (A) and (B), or if a mixture of polyesters (A) and/or a mixture of acrylic resins (B) is present, the average hydroxyl- or acid-value of the mixture of the polyesters (A) and/or the mixture of acrylic resins (B), have a difference of higher than or equal to 20, in particular 30, and the weight-ratio of (B)/(A) is between 1.0 and 4.5. one or more hydroxyl or carboxyl functional polyester(s) (A) in an amount of 9-90 weight percent based on the overall powder coating composition, the functional polyester(s) (A) being characterized by a Tg of more than 35°C; one or more hydroxyl or carboxyl functional acrylic resin(s) (B) in an amount of 9-90 weight percent based on the overall powder coating composition, the hydroxyl or carboxyl functional acrylic resin(s) (B) being characterized by a Tg of more than 35°C; and one or more cross linker(s) (C) able to react with (A) and/or (B) in an amount of 1-50 weight percent based on the overall powder coating composition,
A cover for a spa, comprising: a first shell member having a base layer, a cosmetic film laminated to the base layer, and an acrylic film laminated to the cosmetic film ; a a second shell member nested with the first shell member and defining an interior space therebetween; and a foam within the interior space and bonded with the first shell member and the second shell member , wherein the base layer, the cosmetic film laminated to the base layer, and the acrylic film laminated to the cosmetic film form a first layered assembly, and the second shell member and the first layered assembly are formed to shape by vacuum forming. a first shell member having a base layer, a cosmetic film laminated to the base layer, and an acrylic film laminated to the cosmetic film ; a a second shell member nested with the first shell member and defining an interior space therebetween; and a foam within the interior space and bonded with the first shell member and the second shell member , wherein the base layer, the cosmetic film laminated to the base layer, and the acrylic film laminated to the cosmetic film form a first layered assembly, and the second shell member and the first layered assembly are formed to shape by vacuum forming.
Installation for planishing running metal product (PM) of strip or plate type comprising: - a frame (B) in which are disposed a lower planishing cassette (C1) and an upper planishing cassette (C2), - a lower drive means (Me1) for driving planishing rollers of the lower cassette (C1) in rotation, - an upper drive means (Me2) for driving planishing rollers of the upper cassette (C2) in rotation, - the upper and lower drive means (Me1, Me2) being disposed on a first motor side (CM) and external to the frame (B), laterally in relation to a product (PM) running axis, characterized by : - a displacement means (MD) for displacing a secured assembly comprising the lower cassette (C1) and the lower drive means (Me1), said displacement means being able to be activated for removal of the lower cassette (C1) from the frame (B) toward the first motor side (CM) or for an insertion of the lower cassette (C1) from the first motor side into the frame, - the secured assembly comprising a replacement tool (OR) for the lower cassette (C1), said tool being coupled to the lower cassette (C1) on a second operator side (CO) opposite the first motor side (CM) in relation to the product running axis (D). - a frame (B) in which are disposed a lower planishing cassette (C1) and an upper planishing cassette (C2), - a lower drive means (Me1) for driving planishing rollers of the lower cassette (C1) in rotation, - an upper drive means (Me2) for driving planishing rollers of the upper cassette (C2) in rotation, - the upper and lower drive means (Me1, Me2) being disposed on a first motor side (CM) and external to the frame (B), laterally in relation to a product (PM) running axis, - a displacement means (MD) for displacing a secured assembly comprising the lower cassette (C1) and the lower drive means (Me1), said displacement means being able to be activated for removal of the lower cassette (C1) from the frame (B) toward the first motor side (CM) or for an insertion of the lower cassette (C1) from the first motor side into the frame, - the secured assembly comprising a replacement tool (OR) for the lower cassette (C1), said tool being coupled to the lower cassette (C1) on a second operator side (CO) opposite the first motor side (CM) in relation to the product running axis (D).
DC meter for an electrical vehicle charging station having a pair of DC power supply lines extending from a charging station controller to an electrical vehicle connector , the DC meter comprising a meter unit , a sensor unit and an interconnection cable , the meter unit comprising a user interface , a sensor interface for connection to the sensor unit , a metering interface for connection to the charging station controller, and a microprocessor configured to receive and process signals received from the sensor unit , to exchange data with the charging station controller and to receive commands from the user interface and output information to the user interface, wherein the sensor unit is separate and connected at a point distal from the meter unit via the interconnection cable for the transmission of measurement signals, the sensor unit adapted to be coupled to one of the pair of DC power supply lines configured for measuring the current flowing through said power line, the sensor unit further comprising a voltage sensor for coupling to each of the pair of power supply lines for measuring a voltage difference therebetween, the sensor unit further comprising a microprocessor with analog to digital convertors, ADC, for converting the received analog voltage measurement and current measurement signals to digital signals, the sensor unit further comprising a communication interface configured for transmission of encrypted data through the interconnection cable to the meter unit.
Open roof construction for a vehicle, comprising a stationary roof part , a roof opening provided therein, a panel movably mounted in said stationary roof part for opening and closing said roof opening, wherein said roof opening has a forward edge and wherein near to said forward edge a movable wind deflector is provided, which wind deflector comprises an upper elongate member extending substantially in parallel to said forward edge which is movable between a retracted position below the level of the stationary roof part and an extended position at least partially above said level of the stationary roof part and a flexible wind deflecting material having an upper end attached to said elongate member and a lower end attached to the stationary roof part , and wherein the upper elongate member of the wind deflector has a central part extending over a length in parallel to the forward edge of the roof opening and two end parts each extending over a length substantially in parallel to side edges of the roof opening, wherein a movable control part is provided which extends in parallel to said forward edge over a part of the length of the central part of the elongate member and which with a first end is attached to the stationary roof part (1,1") and which with an opposite second end is connected to the wind deflecting material at an engagement position between the upper and lower ends of the wind deflecting material, characterized in that the control part comprises a material having flexible and/or elastic properties and which is stretchable.
A system for monitoring liquid intake of a user , comprising: a container , a vital parameter sensor , monitoring means configured to determine an amount of liquid removed from the container ; an interface configured to receive, from the vital parameter sensor , a vital parameter of the user of the system ; and prompting means configured to prompt the user to drink as a function of the amount of liquid removed and of the vital parameter , wherein the monitoring means , the interface and the prompting means are arranged within a socket configured to receive the container , and wherein the container is formed of a transparent material, characterized in that the prompting means is configured to couple light into the container for prompting purposes, and wherein the container comprises scattering centers configured to scatter the light coupled in, and wherein the container comprises a projection formed in the container bottom , and wherein the prompting means is configured to couple the light into the container at the projection . a container , a vital parameter sensor , monitoring means configured to determine an amount of liquid removed from the container ; an interface configured to receive, from the vital parameter sensor , a vital parameter of the user of the system ; and prompting means configured to prompt the user to drink as a function of the amount of liquid removed and of the vital parameter , wherein the monitoring means , the interface and the prompting means are arranged within a socket configured to receive the container , and wherein the container is formed of a transparent material, characterized in that the prompting means is configured to couple light into the container for prompting purposes, and wherein the container comprises scattering centers configured to scatter the light coupled in, and wherein the container comprises a projection formed in the container bottom , and wherein the prompting means is configured to couple the light into the container at the projection .