mhurhangee/patent-ind-claim-en huggingface dataset:
A process for polymerizing olefin monomer(s) in a gas solids olefin polymerization reactor comprising: - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; comprising the following steps: a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; and g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor wherein the feeding area of the middle zone is located on the surface of the middle zone between the top end and 50% of the total height of the middle zone, whereas the bottom end corresponds to 0% and the top end corresponds to 100% of the total height of the middle zone. - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; and g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor
A genetically modified rodent comprising antibody-secreting cells comprising an exogenous nucleic acid sequence comprising (i) a promoter, that is expressed in antibody-secreting cells, and (ii) a nucleic acid sequence encoding an immunoglobulin-capturing molecule comprising a cell surface tether portion and an immunoglobulin-binding portion, wherein the promoter is operably linked to said nucleic acid sequence encoding said immunoglobulin-capturing molecule, wherein the cell surface tether portion comprises a transmembrane peptide, and wherein the immunoglobulin-binding portion is selected from: a) one or more bacterial proteins that naturally have affinity for the constant region of a heavy or light chain of an immunoglobulin; (b) one or more variable domains of an immunoglobulin that has affinity for any part of another immunoglobulin; or (c) a single chain variable fragment against a heavy or light chain constant region of an immunoglobulin; wherein the antibody secreting cells of the genetically modified rodent produce said immunoglobulin-capturing molecules that can bind, retain, and display endogenously produced immunoglobulin molecules at a cell surface of the antibody-secreting cells. (i) a promoter, that is expressed in antibody-secreting cells, and (ii) a nucleic acid sequence encoding an immunoglobulin-capturing molecule comprising a cell surface tether portion and an immunoglobulin-binding portion, wherein the promoter is operably linked to said nucleic acid sequence encoding said immunoglobulin-capturing molecule, wherein the cell surface tether portion comprises a transmembrane peptide, and wherein the immunoglobulin-binding portion is selected from: a) one or more bacterial proteins that naturally have affinity for the constant region of a heavy or light chain of an immunoglobulin; (b) one or more variable domains of an immunoglobulin that has affinity for any part of another immunoglobulin; or (c) a single chain variable fragment against a heavy or light chain constant region of an immunoglobulin; a) one or more bacterial proteins that naturally have affinity for the constant region of a heavy or light chain of an immunoglobulin; (b) one or more variable domains of an immunoglobulin that has affinity for any part of another immunoglobulin; or (c) a single chain variable fragment against a heavy or light chain constant region of an immunoglobulin; wherein the antibody secreting cells of the genetically modified rodent produce said immunoglobulin-capturing molecules that can bind, retain, and display endogenously produced immunoglobulin molecules at a cell surface of the antibody-secreting cells.
A control unit for controlling a pumping station as a pressure regulating system of a water supply network , the control unit comprising a model formation module for creating a model for controlling the pressure regulating system , wherein the water supply network is equipped with one or more pressure sensors of which at least one remote pressure sensor (17a,b) is arranged remotely from the pressure regulating system , the model formation module being configured to communicate with the at least one remote pressure sensor (17a,b), characterised in that the model formation module is configured to create said model without a measured, determined or estimated flow value on the basis of at least one remote pressure value determined by the at least one remote pressure sensor (17a,b) and on the basis of at least one load-dependent variable of the pressure regulating system , said model representing at least one pressure control curve for controlling the pressure regulating system , wherein the at least one pressure control curve represents a necessary outlet pressure value p out at an outlet of the pumping station as a function of the at least one load-dependent variable and model parameters for achieving a desired remote pressure value p cri ∗ at the at least one remote pressure sensor (17a,b), wherein the necessary outlet pressure value p out is parametrised as p out = f θ ω s P all + θ 0 + p cri ∗ = θ 1 sω − θ 2 sω 2 + θ 3 s 2 ω + θ 4 sP all ω 2 + θ 0 + p cri * or as p out = f θ ω s P all + θ 0 + p cri * = θ 1 P all ω 2 + θ 2 sω + θ 3 s ω 2 2 + θ 0 + p cri * , wherein the at least one load-dependent variable is the power consumption P all of all active pumps of the pumping station , s is the number of active pumps, ω is the speed of the active pumps, and the model parameters θ and θ 0 describe the shape of the at least one pressure control curve. the model formation module is configured to create said model without a measured, determined or estimated flow value on the basis of at least one remote pressure value determined by the at least one remote pressure sensor (17a,b) and on the basis of at least one load-dependent variable of the pressure regulating system , said model representing at least one pressure control curve for controlling the pressure regulating system , wherein the at least one pressure control curve represents a necessary outlet pressure value p out at an outlet of the pumping station as a function of the at least one load-dependent variable and model parameters for achieving a desired remote pressure value p cri ∗ at the at least one remote pressure sensor (17a,b), wherein the necessary outlet pressure value p out is parametrised as p out = f θ ω s P all + θ 0 + p cri ∗ = θ 1 sω − θ 2 sω 2 + θ 3 s 2 ω + θ 4 sP all ω 2 + θ 0 + p cri * or as p out = f θ ω s P all + θ 0 + p cri * = θ 1 P all ω 2 + θ 2 sω + θ 3 s ω 2 2 + θ 0 + p cri * , wherein the at least one load-dependent variable is the power consumption P all of all active pumps of the pumping station , s is the number of active pumps, ω is the speed of the active pumps, and the model parameters θ and θ 0 describe the shape of the at least one pressure control curve.
A method for displaying an image on a transparent display based on eye vergence, the method comprising a processor: computing, based on sensor data associated with eyes of a user and acquired by at least one sensor, eye gaze vectors associated with the eyes of the user; determining a first distance from the one or more eyes of a user to a display location ; determining , based on eye gaze vectors associated with the eyes of the user, an eye convergence distance ; causing a primary display region and a secondary display region different from the primary display region to be displayed on the transparent display while the eye convergence distance is substantially the same as the first distance, wherein the secondary display region comprises a plurality of icons; and causing the primary display region to be hidden from the transparent display and the secondary display region to remain displayed on the transparent display while the eye convergence distance is not substantially the same as the first distance. computing, based on sensor data associated with eyes of a user and acquired by at least one sensor, eye gaze vectors associated with the eyes of the user; determining a first distance from the one or more eyes of a user to a display location ; determining , based on eye gaze vectors associated with the eyes of the user, an eye convergence distance ; causing a primary display region and a secondary display region different from the primary display region to be displayed on the transparent display while the eye convergence distance is substantially the same as the first distance, wherein the secondary display region comprises a plurality of icons; and causing the primary display region to be hidden from the transparent display and the secondary display region to remain displayed on the transparent display while the eye convergence distance is not substantially the same as the first distance.
Installation for supplying respiratory gas to a user (P), comprising: - a gas source for supplying an oxygen-containing respiratory gas, - a main gas delivery line fluidically connecting the gas source to a respiratory interface configured to administer the oxygen-containing respiratory gas to the user, during each inspiratory phase of said user, - a gas recovery line configured to recover and convey at least some of the CO 2 /O 2 gas mixture exhaled by the user and located in the respiratory interface, during each expiratory phase of the user, said gas recovery line fluidically connecting the respiratory interface to a gas purification system comprising adsorbers (130-132) arranged in parallel and each containing at least one adsorbent, said gas recovery line supplying said gas purification system with said CO 2 /O 2 gas mixture exhaled by the user, and - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line , characterized in that the gas source comprises an oxygen generation unit comprising: - at least one electrochemical separation module , - a first gas line for supplying said at least one electrochemical separation module with air, - gas heating means arranged on the first internal gas line , upstream of said at least one electrochemical separation module , and - a second gas line fluidically connecting said at least one electrochemical separation module to the gas purification system , for conveying a flow of waste gas to the gas purification system in order to regenerate said at least one adsorbent contained in at least one of said adsorbers (130-132). - a gas source for supplying an oxygen-containing respiratory gas, - a main gas delivery line fluidically connecting the gas source to a respiratory interface configured to administer the oxygen-containing respiratory gas to the user, during each inspiratory phase of said user, - a gas recovery line configured to recover and convey at least some of the CO 2 /O 2 gas mixture exhaled by the user and located in the respiratory interface, during each expiratory phase of the user, said gas recovery line fluidically connecting the respiratory interface to a gas purification system comprising adsorbers (130-132) arranged in parallel and each containing at least one adsorbent, said gas recovery line supplying said gas purification system with said CO 2 /O 2 gas mixture exhaled by the user, and - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line , - at least one electrochemical separation module , - a first gas line for supplying said at least one electrochemical separation module with air, - gas heating means arranged on the first internal gas line , upstream of said at least one electrochemical separation module , and - a second gas line fluidically connecting said at least one electrochemical separation module to the gas purification system , for conveying a flow of waste gas to the gas purification system in order to regenerate said at least one adsorbent contained in at least one of said adsorbers (130-132).
An ultraviolet-emitting device comprising: a light-emitting element configured to emit an ultraviolet ray; a board on which the light-emitting element is placed; a fluorescent glass element placed at a position irradiated with the ultraviolet ray emitted by the light-emitting element , and placed in a through hole formed through the board , and being adjacent to the light-emitting element , emitting fluorescence in a visible range by excitation of an ultraviolet ray; and a photodetection element configured to detect an intensity of the fluorescence emitted by the fluorescent glass element, wherein the photodetection element is placed on an opposite side of a placement side of the light-emitting element with respect to the board , and wherein the fluorescent glass element is formed in a pillar shape and has, at one end, an inclined surface lower in a direction away from the light-emitting element , or the fluorescent glass element is formed in a shape having a spherical surface. a light-emitting element configured to emit an ultraviolet ray; a board on which the light-emitting element is placed; a fluorescent glass element placed at a position irradiated with the ultraviolet ray emitted by the light-emitting element , and placed in a through hole formed through the board , and being adjacent to the light-emitting element , emitting fluorescence in a visible range by excitation of an ultraviolet ray; and a photodetection element configured to detect an intensity of the fluorescence emitted by the fluorescent glass element, wherein the photodetection element is placed on an opposite side of a placement side of the light-emitting element with respect to the board , and wherein the fluorescent glass element is formed in a pillar shape and has, at one end, an inclined surface lower in a direction away from the light-emitting element , or the fluorescent glass element is formed in a shape having a spherical surface.
A microfluidic device comprising a plurality of layers and a common manifold , each layer within the plurality of layers comprises an inlet and at least two outlets , the inlet being in fluid communication with each of the at least two outlets via a channel, the inlet of each layer within the plurality of layers being in fluid communication with the common manifold , such that fluid may flow from the common manifold through each channel of each layer within the plurality of layers via the inputs of each respective layer to the at least two outlets of each layer , wherein, during use, a fluid comprising a target population of particles having a specified range of diameters may be processed by the device by flowing from the common manifold through the channels of each layer within the plurality of layers via the inlets of those layers, and fluid collected from a first outlet of each layer within the plurality of layers comprises the target population of particles, and fluid collected from a second outlet of each layer within the plurality of layers is devoid of the target population of particles, characterised in that the common manifold comprises an inlet , a branched portion , an open portion downstream of the branched portion and a manifold outlet in direct fluid communication with the inlet of the channel of each layer within the plurality of layers, such that fluid flows during use, from the inlet of the common manifold to the inlet of each layer within the plurality of layers via the branched portion and the manifold outlet of the common manifold , such that the flow rate of fluid passing through the channel of each layer within the plurality of layers is substantially the same.
A transverse steering method for the movement of a vehicle comprising an active steering to a target position , comprising: - carrying out a deriving of distance and/or angle measurements facilitating location and/or orientation data between the vehicle and the target position , - deriving the location and/or orientation data , - filtering the location and/or orientation data to current values , which comprise current location values and current orientation values , - carrying out a control , which derives the target steering angle from the current values , and - realization of the target steering angle by acting on the active steering of the vehicle , characterized in that - the control comprises a cascade control , in which in an outer control circuit a target orientation is derived from the current location values , and in an inner control circuit the target steering angle is derived from the target orientation and the current orientation value , wherein - the target orientation is derived proportionally to the difference from the target offset minus a transverse offset derived from the current location values , and - the target steering angle is derived proportionally to the difference from the target orientation minus the current orientation value . - carrying out a deriving of distance and/or angle measurements facilitating location and/or orientation data between the vehicle and the target position , - deriving the location and/or orientation data , - filtering the location and/or orientation data to current values , which comprise current location values and current orientation values , - carrying out a control , which derives the target steering angle from the current values , and - realization of the target steering angle by acting on the active steering of the vehicle , characterized in that - the control comprises a cascade control , in which in an outer control circuit a target orientation is derived from the current location values , and in an inner control circuit the target steering angle is derived from the target orientation and the current orientation value , wherein - the target orientation is derived proportionally to the difference from the target offset minus a transverse offset derived from the current location values , and - the target steering angle is derived proportionally to the difference from the target orientation minus the current orientation value .
A sensor , comprising: a diaphragm having a bonding portion and a main boss separated from the bonding portion by at least one channel , a base having a first contact area aligned with the main boss and separated from the main boss , wherein the bonding portion of the diaphragm is bonded to the base ; and at least one sensing element that senses movement of the diaphragm characterised in that the main boss has a chamfered corner face connecting two side faces , a first side face and a second side face of the main boss; a diaphragm having a bonding portion and a main boss separated from the bonding portion by at least one channel , a base having a first contact area aligned with the main boss and separated from the main boss , wherein the bonding portion of the diaphragm is bonded to the base ; and at least one sensing element that senses movement of the diaphragm characterised in that the main boss has a chamfered corner face connecting two side faces , a first side face and a second side face of the main boss;
An antibody specifically binding to claudin 18A2, wherein the antibody is selected from the group consisting of: an antibody, wherein: - the CDR1, CDR2 and CDR3 regions of the heavy chain variable region of the antibody are SEQ ID NO: 49, SEQ ID NO: 85, SEQ ID NO: 51, and the CDR1, CDR2 and CDR3 regions of the light chain variable region of the antibody are SEQ ID NO: 52, SEQ ID NO: 53, SEQ ID NO: 54; or - the antibody preferably is: - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - wherein the antibody is a humanized antibody selected from the group consisting of an antibody having a heavy chain of SEQ ID NO: 63 and a light chain of SEQ ID NO: 65, and an antibody having a heavy chain of SEQ ID NO: 67 and a light chain of SEQ ID NO: 65. - the CDR1, CDR2 and CDR3 regions of the heavy chain variable region of the antibody are SEQ ID NO: 49, SEQ ID NO: 85, SEQ ID NO: 51, and the CDR1, CDR2 and CDR3 regions of the light chain variable region of the antibody are SEQ ID NO: 52, SEQ ID NO: 53, SEQ ID NO: 54; or - the antibody preferably is: - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 27 and a light chain variable region of SEQ ID NO: 25; or - an antibody having a heavy chain variable region of SEQ ID NO: 29 and a light chain variable region of SEQ ID NO: 25; or - wherein the antibody is a humanized antibody selected from the group consisting of an antibody having a heavy chain of SEQ ID NO: 63 and a light chain of SEQ ID NO: 65, and an antibody having a heavy chain of SEQ ID NO: 67 and a light chain of SEQ ID NO: 65.
Method for manufacturing a heating mat that comprises two partial mats of incompletely cured thermosetting plastic, the heating mat further comprises an article of electrically conductive material which is arranged between the partial mats and which is produced by a knitting or crocheting operation using wire or tape , finally curing the heating mat by applying regulated electrical current to the article .
Assembly for a plug-in connector part , comprising a holding frame which has frame walls and a frame opening , which is delimited by the frame walls , for receiving a plurality of modular contact inserts at a plurality insertion points which are lined up with one another along a width direction (B), and comprising at least one modular contact insert which can be inserted into the frame opening at at least one insertion point and has a housing body with at least one protruding element , which is arranged on the housing body, for engaging into an associated recess on one of the frame walls of the holding frame , characterized in that the at least one modular contact insert has at least one slide element which is guided in a displaceable manner on the housing body and on which the at least one protruding element is arranged.
An extended release tablet composition comprising fesoterodine fumarate and at least one coating comprising coating agents wherein the amount of fesoterodine fumarate is between 0.5% and 25.0% w/w of the composition and the amount of the coating agents is between 0.1% and 10.0% w/w of the composition and wherein the coating agents are ammonium methacrylate copolymer mixture, triethyl citrate, talc and silicon dioxide; and wherein the extended release tablet composition further comprises fructose as a stabilizer.