mhurhangee/ep-ind-claims huggingface dataset:
A process for the capture of CO 2 from gas streams, the process including contacting a CO 2 containing gas stream with a compound including: a primary or non-sterically hindered secondary amine group and at least one tertiary amine or sterically hindered secondary amine group; wherein the primary or non-sterically hindered secondary amine and the nearest tertiary or sterically hindered secondary amine group are separated by a carbon chain including 3 or 4 carbon atoms and wherein the compound is a compound of Formula wherein: X is 0 or 1; and either A) R 1 is represented by hydrogen or C 1 alkyl; R 2 is represented by -CH 2 CH 3, -CH 2 CH 2 CH 3, -(CH 2) 2 OH, -(CH 2) 3 OH,-(CH 2) 6 OH, -CH 2 COOH or -(CH 2) 2 N(CH 3) 2; R 3 is represented by hydrogen; R 4 is represented by hydrogen; and R 5 is represented by hydrogen; or B) R 1 is represented by hydrogen; R 2 is represented by hydrogen; R 3 is represented by hydrogen; R 4 is represented by -CH 2 CH 3, -CH 2 CH 2 CH 3, -(CH 2) 2 OH, -(CH 2) 3 OH or - (CH 2) 6 OH; and R 5 is represented by hydrogen; or C) R 1 is represented by hydrogen or C 1 alkyl; R 2 is represented by hydrogen, -CH 2 CH 3, -CH 2 CH 2 CH 3 or -(CH 2) 2 N(CH 3) 2; R 3 is represented by hydrogen; R 4 is represented by hydrogen, -CH 2 CH 3, -CH 2 CH 2 CH 3 or -(CH 2) 2 N(CH 3) 2; and R 5 is represented by hydrogen; with the proviso that when R 4 is hydrogen, R 2 is not hydrogen; when R 4 is not hydrogen, R 1 and/or R 2 is hydrogen; when R 2 is hydrogen, R 4 is not hydrogen; and when R 2 is hydrogen, R 1 is hydrogen and x is 0. a primary or non-sterically hindered secondary amine group and at least one tertiary amine or sterically hindered secondary amine group; A) R 1 is represented by hydrogen or C 1 alkyl; R 2 is represented by -CH 2 CH 3, -CH 2 CH 2 CH 3, -(CH 2) 2 OH, -(CH 2) 3 OH,-(CH 2) 6 OH, -CH 2 COOH or -(CH 2) 2 N(CH 3) 2; R 3 is represented by hydrogen; R 4 is represented by hydrogen; and R 5 is represented by hydrogen; or B) R 1 is represented by hydrogen; R 2 is represented by hydrogen; R 3 is represented by hydrogen; R 4 is represented by -CH 2 CH 3, -CH 2 CH 2 CH 3, -(CH 2) 2 OH, -(CH 2) 3 OH or - (CH 2) 6 OH; and R 5 is represented by hydrogen; or C) R 1 is represented by hydrogen or C 1 alkyl; R 2 is represented by hydrogen, -CH 2 CH 3, -CH 2 CH 2 CH 3 or -(CH 2) 2 N(CH 3) 2; R 3 is represented by hydrogen; R 4 is represented by hydrogen, -CH 2 CH 3, -CH 2 CH 2 CH 3 or -(CH 2) 2 N(CH 3) 2; and R 5 is represented by hydrogen; with the proviso that when R 4 is hydrogen, R 2 is not hydrogen; when R 4 is not hydrogen, R 1 and/or R 2 is hydrogen; when R 2 is hydrogen, R 4 is not hydrogen; and when R 2 is hydrogen, R 1 is hydrogen and x is 0.
A housing cartridge for a modular fluid pump system that includes a pump motor providing a motor force, the housing cartridge comprising: a frame enclosed in the housing cartridge; a plurality of rollers arranged on the frame; a second mating portion of drive coupling means connected to the frame, wherein the second mating portion is able to mate in use with a first mating portion of drive coupling means connected to the pump motor, such that the drive coupling means transmits the motor force to the frame thereby inducing rotation of the frame; and a fluid conduit, wrapped under tension around at least one of the plurality of rollers, that facilitates fluid flow from an inlet region of the fluid conduit to an outlet region of the fluid conduit, wherein rotation of the frame causes the plurality of rollers to compress the fluid conduit at subsequent intervals, thereby driving fluid to the outlet region with a peristaltic movement; wherein the housing cartridge is interchangeable with a replacement housing cartridge in the modular fluid pump system; characterized in that: the housing cartridge is airtight sealed and includes a pressure control port that facilitates adjustment of the pressure within the housing cartridge. a frame enclosed in the housing cartridge; a plurality of rollers arranged on the frame; a second mating portion of drive coupling means connected to the frame, wherein the second mating portion is able to mate in use with a first mating portion of drive coupling means connected to the pump motor, such that the drive coupling means transmits the motor force to the frame thereby inducing rotation of the frame; and a fluid conduit, wrapped under tension around at least one of the plurality of rollers, that facilitates fluid flow from an inlet region of the fluid conduit to an outlet region of the fluid conduit, wherein rotation of the frame causes the plurality of rollers to compress the fluid conduit at subsequent intervals, thereby driving fluid to the outlet region with a peristaltic movement; wherein the housing cartridge is interchangeable with a replacement housing cartridge in the modular fluid pump system; characterized in that: the housing cartridge is airtight sealed and includes a pressure control port that facilitates adjustment of the pressure within the housing cartridge.
A container with child resistant means, which container comprises: (i) a body portion for receiving a product; (ii) a top for opening and closing the body portion; (iii) locking means for locking the top to the body portion; and (iv) opening means for unlocking the locking means and enabling the top to be moved to open the body portion, and the container being such that: (v) the locking means is a push-operated locking means which operates by pushing the top onto the body portion; (vi) the opening means is a squeeze-operated opening means which operates by simultaneously squeezing sidewalls of the top at two opposed locations only; wherein (vii) the push operated locking means and the squeeze operated opening means enable the body portion to be closable and openable using only one hand on the top and without having to rotate the top relative to the body portion; characterised in that: (viii) the container has a recess defined by two sides on the open end of the top, the length of the recess forming regulating means to regulate the squeeze strength required to deform the body portion. (i) a body portion for receiving a product; (ii) a top for opening and closing the body portion; (iii) locking means for locking the top to the body portion; and (iv) opening means for unlocking the locking means and enabling the top to be moved to open the body portion, and the container being such that: (v) the locking means is a push-operated locking means which operates by pushing the top onto the body portion; (vi) the opening means is a squeeze-operated opening means which operates by simultaneously squeezing sidewalls of the top at two opposed locations only; wherein (vii) the push operated locking means and the squeeze operated opening means enable the body portion to be closable and openable using only one hand on the top and without having to rotate the top relative to the body portion; (v) the locking means is a push-operated locking means which operates by pushing the top onto the body portion; (vi) the opening means is a squeeze-operated opening means which operates by simultaneously squeezing sidewalls of the top at two opposed locations only; wherein (vii) the push operated locking means and the squeeze operated opening means enable the body portion to be closable and openable using only one hand on the top and without having to rotate the top relative to the body portion; characterised in that: (viii) the container has a recess defined by two sides on the open end of the top, the length of the recess forming regulating means to regulate the squeeze strength required to deform the body portion.
Process for the treatment of biomass as fuel in a plant for producing cement clinker from raw meal, which comprises, in the flow direction of the raw meal, a first heat exchanger, a calciner and a rotary tube furnace, characterized by predrying of the biomass in a drying reactor, where the biomass is predried by means of the exhaust gases from a second heat exchanger of the plant, and by subsequent carbonization of the biomass in a carbonization reactor, where circulated exhaust gases flowing from the rotary tube furnace into the calciner and then into the first heat exchanger are used for carbonization, where firstly an after-combustion for reducing the oxygen content is carried out in the exhaust gases from the first heat exchanger.
An apparatus comprising: a sensor head comprising: multiple rail contacts configured to touch multiple power supply rails (208a-208b, 210a-210b), and couple the sensor head (204a, 204b) to said rails (208a-208b, 210a-210b), so that the sensor head can move back and forth on the rails, wherein each rail contact comprises an outer race (402, 452) and an inner race (404, 454); electrical contacts configured to touch the rail contacts to form electrical connections to the rails and receive power from the rails via the rail contacts; a power converter/conditioner configured to receive the power from the rails via the electrical contacts and to convert the power into a different form and/or condition the power; one or more sensors configured to measure at least one characteristic of a material, the one or more sensors configured to operate using the power from the power converter/conditioner; and a chassis configured to move back and forth along the rails (208a-208b, 210a-210b); wherein the chassis is configured to encase the components of the sensor head 204a, 204b). multiple rail contacts configured to touch multiple power supply rails (208a-208b, 210a-210b), and couple the sensor head (204a, 204b) to said rails (208a-208b, 210a-210b), so that the sensor head can move back and forth on the rails, wherein each rail contact comprises an outer race (402, 452) and an inner race (404, 454); electrical contacts configured to touch the rail contacts to form electrical connections to the rails and receive power from the rails via the rail contacts; a power converter/conditioner configured to receive the power from the rails via the electrical contacts and to convert the power into a different form and/or condition the power; one or more sensors configured to measure at least one characteristic of a material, the one or more sensors configured to operate using the power from the power converter/conditioner; and a chassis configured to move back and forth along the rails (208a-208b, 210a-210b); wherein the chassis is configured to encase the components of the sensor head 204a, 204b).
Use of -8-(3,4-dimethoxystyryl)-1,3-diethyl-7-methylxanthine or a pharmaceutically acceptable salt thereof for the manufacture of a medicament for reducing or suppressing the adverse effectiveness caused by L-DOPA and/or dopamine agonist therapy to be administered to a Parkinson's disease patient in an advanced stage of the disease, wherein the patient suffers from L-DOPA- or other dopaminergic-agent-induced motor complications and wherein OFF time in motor fluctuation is reduced.
An optical probe to image a solid organ in a subject, the optical probe being intended to be positioned in the solid organ through a needle, the optical probe comprising: an optical fiber bundle for transmitting light of an illumination source towards the solid organ through the distal end of the optical fiber bundle and for transmitting a return light beam coming from the solid organ; a ferule to protect the distal tip of the optical fiber bundle, the ferule comprising a shank and a head; a sheath wrapping the fiber bundle and the shank; wherein the head of the ferule has a length adapted for the optical probe to image the solid organ while keeping the sheath inside the needle. an optical fiber bundle for transmitting light of an illumination source towards the solid organ through the distal end of the optical fiber bundle and for transmitting a return light beam coming from the solid organ; a ferule to protect the distal tip of the optical fiber bundle, the ferule comprising a shank and a head; a sheath wrapping the fiber bundle and the shank; the head of the ferule has a length adapted for the optical probe to image the solid organ while keeping the sheath inside the needle.
A fluid drain plug for a fluid reservoir with a drain hole, the plug having an extension in an axial direction and comprising a body part rotationally insertable into the drain hole, the body part having a proximal axial end, a distal axial end and a substantially circular cross section with an outer surface, wherein the body part comprises a drain channel having an inlet located at the distal axial end and an outlet opening disposed on the outer surface, the body part further comprising a bayonet-type connection slot for accommodating a part of a radial projection of a circumferential surface surrounding the drain hole, the bayonet-type connection slot being disposed on the outer surface and comprises an entrance at the distal axial end, a first path and a second path, the first path extending from the entrance, in the axial direction and in one circumferential direction, to a first path terminal portion, wherein the first path terminal portion is adapted to accommodate the radial projection, and the second path extending from the first path terminal portion, in the axial direction and in an opposite direction to the one circumferential direction, to a second path terminal portion, wherein the second path terminal portion is adapted to accommodate the radial projection. the first path extending from the entrance, in the axial direction and in one circumferential direction, to a first path terminal portion, wherein the first path terminal portion is adapted to accommodate the radial projection, and the second path extending from the first path terminal portion, in the axial direction and in an opposite direction to the one circumferential direction, to a second path terminal portion, wherein the second path terminal portion is adapted to accommodate the radial projection.
Herbicidal composition comprising, as sole herbicidally active constituents, A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C). A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C).
A method of evaluating an advised driving speed of a vehicle traversing a particular portion of a road network, comprising: accessing first predetermined data indicative of the variation in average fuel consumption for the vehicle with speed of the vehicle; determining a range of speeds between a speed limit for the portion of the road network being traversed and a predetermined percentage of said speed limit; using the first predetermined data to determine data indicative of average fuel consumption for the vehicle for a plurality of speeds within the range; and evaluating the advised driving speed of the vehicle based at least in part on the determined data indicative of average fuel consumption for the vehicle for the range of speeds. accessing first predetermined data indicative of the variation in average fuel consumption for the vehicle with speed of the vehicle; determining a range of speeds between a speed limit for the portion of the road network being traversed and a predetermined percentage of said speed limit; using the first predetermined data to determine data indicative of average fuel consumption for the vehicle for a plurality of speeds within the range; and evaluating the advised driving speed of the vehicle based at least in part on the determined data indicative of average fuel consumption for the vehicle for the range of speeds.
A system comprising: a converter configured to be coupled between an energy storage unit and a grid; a converter controller configured to control the converter responsive to a frequency command signal and a voltage command signal that respectively cause the converter to provide real power and a reactive power component; and a control circuit configured to detect frequency and voltage variations of the grid and to responsively generate the frequency command signal and the voltage command signal, characterized in that the control circuit implements: a real power control loop having an inner frequency control loop configured to generate frequency command signal responsive to a transient frequency of the grid and a real power reference (P ref); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command responsive to a transient voltage of the grid, a reactive power reference signal (Q ref) and a feedforward (G p2q) of the frequency command signal; and wherein the control circuit is configured to provide feedforward (G p2q) from the inner frequency control loop to the inner voltage control loop to inhibit reactive component transfer in response to a voltage variation of the grid due to a power transfer between the energy storage unit and the grid. a converter configured to be coupled between an energy storage unit and a grid; a converter controller configured to control the converter responsive to a frequency command signal and a voltage command signal that respectively cause the converter to provide real power and a reactive power component; and a control circuit configured to detect frequency and voltage variations of the grid and to responsively generate the frequency command signal and the voltage command signal, characterized in that the control circuit implements: a real power control loop having an inner frequency control loop configured to generate frequency command signal responsive to a transient frequency of the grid and a real power reference (P ref); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command responsive to a transient voltage of the grid, a reactive power reference signal (Q ref) and a feedforward (G p2q) of the frequency command signal; and a real power control loop having an inner frequency control loop configured to generate frequency command signal responsive to a transient frequency of the grid and a real power reference (P ref); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command responsive to a transient voltage of the grid, a reactive power reference signal (Q ref) and a feedforward (G p2q) of the frequency command signal; and wherein the control circuit is configured to provide feedforward (G p2q) from the inner frequency control loop to the inner voltage control loop to inhibit reactive component transfer in response to a voltage variation of the grid due to a power transfer between the energy storage unit and the grid.
A wiper, comprising: a) a carrier enclosing a hollow passage, said carrier having at least one outlet which communicates between said hollow passage and a location on the external surface of said carrier, said carrier having at least one blade support; and b) at least one blade which correspondingly couples to said at least one blade support; wherein said at least one blade support comprises a pair of blade supports (65,66) and wherein said at least one blade comprises a pair of blades (11,12) and wherein said pair of blade supports (65,66) extends in generally parallel relation along the longitudinal length of said carrier, said pair of blade supports (65,66) correspondingly receive said pair of blades (11,12); characterized in that the carrier includes a resiliently flexible curvature between a first carrier end and a second carrier end to allow the sweeping surface of the blade to flexibly conform in wiping engagement with the wipeable surface in response to forcible urging upon a central portion of said carrier wherein the pair of blade supports are of a resilient flexible material. a) a carrier enclosing a hollow passage, said carrier having at least one outlet which communicates between said hollow passage and a location on the external surface of said carrier, said carrier having at least one blade support; and b) at least one blade which correspondingly couples to said at least one blade support; wherein said at least one blade support comprises a pair of blade supports (65,66) and wherein said at least one blade comprises a pair of blades (11,12) and wherein said pair of blade supports (65,66) extends in generally parallel relation along the longitudinal length of said carrier, said pair of blade supports (65,66) correspondingly receive said pair of blades (11,12);
A packaging machine for packaging a product with an outer packaging made from an upper paper web and a lower paper web, the packaging machine comprising a transport device for transporting the product in a transport direction, a transverse separating and welding device for welding the paper webs transversely to the transport direction, a first and a second feeding device (18, 18') for feeding the paper webs into the transverse separating and welding device, wherein the first and the second feeding device (18, 18') each comprise at least one pair of circulating endless elements (34', 34") for conveying the paper webs (14, 16), wherein a first endless element of the pair of endless elements (34', 34") is designed for conveying the upper paper web and a second endless element (34") of the pair of endless elements (34', 34") is designed for conveying the lower paper web, a first and a second longitudinal separating and welding device (22, 22') for welding the paper webs (14, 16) parallel to the transport direction at two opposite longitudinal sides (180, 180') of the paper webs (14, 16), wherein the first and the second longitudinal separating and welding device (22, 22') each comprise at least a first pair of circulating endless elements (134, 136; 144, 146) which draw in the first and second paper webs (14, 16) between them at the two opposite longitudinal sides (180, 180') of the paper webs (14, 16) and guide them in a paper web plane, wherein the transverse separating and welding device is arranged upstream of the first and second longitudinal separating and welding devices (22, 22') in the transport direction, wherein the packaging machine further comprises a first drive device for driving the pairs of endless elements (34, 34') of the feeding devices (18, 18') and a second drive device for driving the first pairs of endless elements (134, 136; 144, 146) of the longitudinal separating and welding devices (22, 22'), wherein the packaging machine further comprises a control device configured to control the first and second drive devices (24, 26) independently of each other, wherein the control device is further configured to control the first and second drive devices (24, 26) such that the pairs of endless elements (34', 34") of the feeding devices are driven at a first conveying speed and the first pairs of endless elements (134, 136; 144, 146) of the longitudinal separating and welding devices (22, 22') are driven at a second conveying speed, wherein the first conveying speed differs from the second conveying speed, and wherein, when the transverse separating and welding device is closed, i.e., in a state where the punches (86, 88) of the transverse separating and welding device are either in contact with each other in the paper web plane and clamp the paper webs (14, 16) between them or are moving towards each other but not yet in the paper web plane, the first conveying speed of the pairs of endless elements of the feeding devices is greater than zero and the second conveying speed of the first pairs of endless elements of the longitudinal separating and welding devices (22, 22') is equal to zero.