mhurhangee/ep-ind-claims huggingface dataset:
A capsule which disintegrates specifically in large intestine, comprising a content comprising a main agent, and a shell, covering the content, comprising a natural water-soluble polymer as a shell base material and chitosan powder dispersing in the natural water-soluble polymer, wherein the natural water-soluble polymer is a mixture of a first natural water-soluble polymer and a second natural water-soluble polymer, wherein the first natural water-soluble polymer is selected from the group consisting of gelatin, carrageenan, starch, agar, pullulan, modified starch, alginic acid, mannan and a mixture thereof, and the second natural water-soluble polymer is selected from the group consisting of pectin, gellan gum, curdlan and a mixture thereof, and wherein the first water-soluble polymer is present in an amount of 1 to 98%, the second natural water-soluble polymer is present in an amount of 1 to 24%, and the chitosan powder is present in an amount of 1 to 27%, said amounts being based on the total weight of a dried shell.
Integrated process for preparing cumene and ethylbenzene through alkylation of benzene comprising the following stages: (a) contacting benzene and ethylene in presence of a catalyst containing one or more zeolites, (b) contacting the mixture resulting from the previous stage with propylene, and possibly with benzene, in presence of a catalyst containing one or more zeolites, (c) subjecting the mixture resulting from stage (b) to separation in order to isolate at least one fraction containing ethylbenzene and a fraction containing cumene. (a) contacting benzene and ethylene in presence of a catalyst containing one or more zeolites, (b) contacting the mixture resulting from the previous stage with propylene, and possibly with benzene, in presence of a catalyst containing one or more zeolites, (c) subjecting the mixture resulting from stage (b) to separation in order to isolate at least one fraction containing ethylbenzene and a fraction containing cumene.
A non-invasive method for determining at least one physiological parameter (V, Q, CvCO 2) related to the effective lung volume, the cardiac output, and/or the carbon dioxide content of venous blood of a subject, the method comprising the steps of, during a sequence of respiratory cycles: - measuring an inspiratory flow of inspiration gas inhaled by the subject and an expiratory flow of expiration gas exhaled by the subject, and - measuring the carbon dioxide content of at least the expiration gas, the method further comprising the steps of: - determining, for each respiratory cycle in the sequence of respiratory cycles, a first parameter (ΔF A CO2) related to the fraction of alveolar carbon dioxide [F A CO 2] of the subject, a second parameter (CaCO 2) related to the carbon dioxide content of the arterial blood [CaCO 2] of the subject, and a third parameter (VTCO 2) related to carbon dioxide elimination [VCO 2] of the subject, based on the measured inspiratory flow, expiratory flow and carbon dioxide content, and - determining said at least one physiological parameter (V, Q, CvCO 2) based on the correlation of the first (ΔF A CO2), second (CaCO 2) and third (VTCO 2) parameters in the sequence of respiratory cycles. - measuring an inspiratory flow of inspiration gas inhaled by the subject and an expiratory flow of expiration gas exhaled by the subject, and - measuring the carbon dioxide content of at least the expiration gas, - determining, for each respiratory cycle in the sequence of respiratory cycles, a first parameter (ΔF A CO2) related to the fraction of alveolar carbon dioxide [F A CO 2] of the subject, a second parameter (CaCO 2) related to the carbon dioxide content of the arterial blood [CaCO 2] of the subject, and a third parameter (VTCO 2) related to carbon dioxide elimination [VCO 2] of the subject, based on the measured inspiratory flow, expiratory flow and carbon dioxide content, and - determining said at least one physiological parameter (V, Q, CvCO 2) based on the correlation of the first (ΔF A CO2), second (CaCO 2) and third (VTCO 2) parameters in the sequence of respiratory cycles.
A brake assembly for a bicycle, comprising: a first brake arm and a second brake arm pivotally disposed on a single pivot; an adjustable ground body disposed on the pivot and releasably securable thereto in a plurality of positions, the ground body including a link pivot; a synchronous link mechanism including a link member pivotally disposed on the link pivot and interconnecting the ground body and the first and second brake arms (12, 13) and arranged so as to synchronize the motion of the first and second brake arms (12, 13); and a spring biasing the first and second brake arms (12, 13) into a rest position, characterized in that the brake assembly is a hydraulic brake. a first brake arm and a second brake arm pivotally disposed on a single pivot; an adjustable ground body disposed on the pivot and releasably securable thereto in a plurality of positions, the ground body including a link pivot; a synchronous link mechanism including a link member pivotally disposed on the link pivot and interconnecting the ground body and the first and second brake arms (12, 13) and arranged so as to synchronize the motion of the first and second brake arms (12, 13); and a spring biasing the first and second brake arms (12, 13) into a rest position, characterized in that the brake assembly is a hydraulic brake.
Device for extracorporeal blood treatment, comprising: at least a first acid concentrate connection which is configured to feed at least a first acid concentrate into the device for extracorporeal blood treatment as a basis for generating a dialysate; and at least a second acid concentrate connection which is configured to feed at least a second acid concentrate into the device for extracorporeal blood treatment as a basis for generating a dialysate; wherein the device for extracorporeal blood treatment is configured to switch over at a predetermined time during an ongoing blood treatment or after a predetermined period of time from feeding the at least first acid concentrate to feeding the at least second acid concentrate, wherein a bicarbonate connection of the device is configured as the first or the second acid concentrate connection in such a way that the first or the second acid concentrate (AC1, AC2) can be supplied to the device via the bicarbonate connection, and bicarbonate can be supplied separately from the bicarbonate connection, characterized in that the device is configured to protocol a concentrate changeover time in the course of an ongoing treatment and to save and make this available as a predefined time for at least one subsequent treatment. at least a first acid concentrate connection which is configured to feed at least a first acid concentrate into the device for extracorporeal blood treatment as a basis for generating a dialysate; and at least a second acid concentrate connection which is configured to feed at least a second acid concentrate into the device for extracorporeal blood treatment as a basis for generating a dialysate; wherein the device for extracorporeal blood treatment is configured to switch over at a predetermined time during an ongoing blood treatment or after a predetermined period of time from feeding the at least first acid concentrate to feeding the at least second acid concentrate, wherein a bicarbonate connection of the device is configured as the first or the second acid concentrate connection in such a way that the first or the second acid concentrate (AC1, AC2) can be supplied to the device via the bicarbonate connection, and bicarbonate can be supplied separately from the bicarbonate connection, characterized in that the device is configured to protocol a concentrate changeover time in the course of an ongoing treatment and to save and make this available as a predefined time for at least one subsequent treatment.
Method for detecting an object in a radar field (2.2) in which a simulator is arranged in a stationary manner in the radar field (2.2) of a radar device, having a radar transmitter (2.1) and a radar receiver (2.3), capable of simulating a speed profile which is defined by temporally consecutive speed changes, and the simulator is actuated in such a way that it simulates at least one predetermined atypical speed profile which cannot be caused by a detectable object so that, in addition to reflection signals from objects moving through the radar field (2.2), the radar receiver (2.3) receives simulator signals caused by the simulator, and status information associated with the atypical speed profile is derived from these simulator signals.
A transport bag for a suspended conveyor system, in particular a rail-guided conveyor system or a transport chain conveyor system, with a conveyor element, in particular a carriage of a rail-guided conveyor system or a conveyor chain link of a transport chain conveyor system, and with a transport bag with a receiving region for receiving one or more units of goods; wherein the transport bag is attached, via a suspension means, suspended rotatable about a rotation axis, to a carrier means of the conveyor element; the transport bag comprises two frame brackets (15, 16) pivotally connected to said suspension means; a first (15, 15a) of the two frame brackets has a first engagement region adapted to be engaged by an actuator for pivoting the first frame bracket; a second (16, 15b) of the two frame brackets has a second engagement region adapted to be engaged by an actuator for pivoting the second frame bracket; characterized in that the two frame brackets (15, 16) are substantially 2-fold rotationally symmetrical to each other about the rotation axis, but not mirror symmetrical to each other, such that the first engagement region of the first frame bracket (15, 15a) is arranged 2-fold rotationally symmetrical about the rotation axis to the second engagement region of the second frame bracket (16, 15b). with a conveyor element, in particular a carriage of a rail-guided conveyor system or a conveyor chain link of a transport chain conveyor system, and with a transport bag with a receiving region for receiving one or more units of goods; wherein the transport bag is attached, via a suspension means, suspended rotatable about a rotation axis, to a carrier means of the conveyor element; the transport bag comprises two frame brackets (15, 16) pivotally connected to said suspension means; a first (15, 15a) of the two frame brackets has a first engagement region adapted to be engaged by an actuator for pivoting the first frame bracket; a second (16, 15b) of the two frame brackets has a second engagement region adapted to be engaged by an actuator for pivoting the second frame bracket; characterized in that the two frame brackets (15, 16) are substantially 2-fold rotationally symmetrical to each other about the rotation axis, but not mirror symmetrical to each other, such that the first engagement region of the first frame bracket (15, 15a) is arranged 2-fold rotationally symmetrical about the rotation axis to the second engagement region of the second frame bracket (16, 15b).
A method implemented in a decoder, the method comprising: receiving, by a receiver of the decoder, a bitstream comprising coded data of a sub-picture containing a tile group, wherein the bitstream further comprises a tile group header associated with the tile group; obtaining, by the processor, a tile group address, wherein the tile group address includes a sub-picture level tile group index of the tile group when the tile group is a rectangular tile group; obtaining, by the processor, a sub-picture identifier ID, of the sub-picture containing the tile group, wherein the tile group address and sub-picture ID are obtained from the tile group header; positioning, by the processor, the tile group of the sub-picture based on the tile group address and sub-picture ID; and decoding, by the processor, the tile group of the sub-picture based on the tile group address. receiving, by a receiver of the decoder, a bitstream comprising coded data of a sub-picture containing a tile group, wherein the bitstream further comprises a tile group header associated with the tile group; obtaining, by the processor, a tile group address, wherein the tile group address includes a sub-picture level tile group index of the tile group when the tile group is a rectangular tile group; obtaining, by the processor, a sub-picture identifier ID, of the sub-picture containing the tile group, wherein the tile group address and sub-picture ID are obtained from the tile group header; positioning, by the processor, the tile group of the sub-picture based on the tile group address and sub-picture ID; and decoding, by the processor, the tile group of the sub-picture based on the tile group address.
An ink film thickness distribution correction method in an ink supply apparatus including an ink fountain storing an ink, a plurality of ink fountain keys (4-1 - 4-n) arranged in the ink fountain, an ink fountain roller to which the ink is supplied from the ink fountain in accordance with opening ratios of the plurality of ink fountain keys, an ink ductor roller to which the ink is transferred from the ink fountain roller by an ink feed operation, and an ink roller group including at least one ink form roller (6-1 - 6-4) to which the ink transferred to the ink ductor roller is supplied, characterized by comprising the steps of: performing a throw-off operation of the ink form roller positioned at an end of the ink roller group during test printing or final printing; stopping the ink feed operation of the ink ductor roller during test printing or final printing; dividing the ink roller group into a plurality of roller subgroups during test printing or final printing; and removing the ink in at least one of roller subgroups out of the divided roller subgroups (S205 - S213). performing a throw-off operation of the ink form roller positioned at an end of the ink roller group during test printing or final printing; stopping the ink feed operation of the ink ductor roller during test printing or final printing; dividing the ink roller group into a plurality of roller subgroups during test printing or final printing; and removing the ink in at least one of roller subgroups out of the divided roller subgroups (S205 - S213).
A passenger seat headrest comprising: a frame comprising a main portion, a first side wing connected to the main portion, and a second side wing connected to the main portion distal from the first side wing; and a support band, said "head support band", connected to the frame and extending from the first side wing to the second side wing, characterized in that the passenger seat headrest further comprises a support connected to the frame, wherein the support comprises a main portion, a first side wing connected to the main portion through a first transition portion, and a second side wing connected to the main portion distal from the first side wing through a second transition portion. a frame comprising a main portion, a first side wing connected to the main portion, and a second side wing connected to the main portion distal from the first side wing; and a support band, said "head support band", connected to the frame and extending from the first side wing to the second side wing, characterized in that the passenger seat headrest further comprises a support connected to the frame, wherein the support comprises a main portion, a first side wing connected to the main portion through a first transition portion, and a second side wing connected to the main portion distal from the first side wing through a second transition portion.
Counter lock for an inactive leaf of a double leaf door, comprising an actuating cam coupled to a follower, an upper slider configured for being coupled to an upper rod through which the blocking of the inactive leaf at an upper blocking point is maintained when the counter lock is in a neutral position, a lower slider configured for being coupled to a lower rod through which the blocking of the inactive leaf at a lower blocking point is maintained when the counter lock is in the neutral position, both sliders (12, 15) being movable with respect to one another, the actuating cam being configured for moving at least one of the sliders (12, 15) when the follower is rotated in an opening direction causing the release of the upper and lower blocking points (A, B) of the inactive leaf, and blocking means configured for maintaining the movement of the sliders (12, 15) blocked in the neutral position of the counter lock, the blocking means comprising a swing coupled to at least one of the sliders (12, 15) for moving said sliders (12, 15), the actuating cam blocking the rotation of the swing in the neutral position of the counter lock, preventing the sliders (12, 15) from moving, the blocking means being unblocked when the follower is rotated in the opening direction, characterized in that the swing comprises a wedge-like projection which, in the neutral position of the counter lock, abuts with a retention surface of the actuating cam, the actuating cam maintaining the blocking of the rotation of the swing in said neutral position.
A method of making and isolating allosteric DNA binding proteins that bind to a companion allosteric effector that induces a conformation change comprising: computationally designing in silico candidate allosteric DNA binding proteins having a binding pocket for a companion allosteric effector, providing nucleic acid sequences encoding the candidate allosteric DNA binding proteins, introducing the nucleic acid sequences into bacterial host cells and expressing the candidate allosteric DNA binding proteins, determining whether the candidate allosteric DNA binding proteins bind to DNA and inhibit expression of a gene by using negative selection to identify a first plurality of bacterial host cells where the candidate allosteric DNA binding proteins have bound to DNA and inhibit expression of the gene, and determining whether the candidate allosteric DNA binding proteins in the first plurality of bacterial host cells bind to the companion allosteric effector using positive screening to identify a second plurality of bacterial host cells where the candidate allosteric DNA binding proteins have bound to the companion allosteric effector, wherein the positive screening includes detecting a detectable marker that is expressed in the first plurality of bacterial cells when the candidate allosteric DNA binding proteins have bound to the companion allosteric effector to express the gene. computationally designing in silico candidate allosteric DNA binding proteins having a binding pocket for a companion allosteric effector, providing nucleic acid sequences encoding the candidate allosteric DNA binding proteins, introducing the nucleic acid sequences into bacterial host cells and expressing the candidate allosteric DNA binding proteins, determining whether the candidate allosteric DNA binding proteins bind to DNA and inhibit expression of a gene by using negative selection to identify a first plurality of bacterial host cells where the candidate allosteric DNA binding proteins have bound to DNA and inhibit expression of the gene, and determining whether the candidate allosteric DNA binding proteins in the first plurality of bacterial host cells bind to the companion allosteric effector using positive screening to identify a second plurality of bacterial host cells where the candidate allosteric DNA binding proteins have bound to the companion allosteric effector, wherein the positive screening includes detecting a detectable marker that is expressed in the first plurality of bacterial cells when the candidate allosteric DNA binding proteins have bound to the companion allosteric effector to express the gene.
Device for arranging at least one additional fold (3,3') in a strip of flattened tubular shrink foil material (1,4) in a container sleeving system for applying tubular shrink foil material around containers,, the device comprising a guiding element having a front side and a back side and configured to guide therealong the strip of flattened tubular shrink foil material moving in axial direction along the guiding element, wherein the guiding element comprises: - an upstream guiding element part formed by a first flat plate extending in a first plane; - a downstream guiding element part formed by a second flat plate part extending in a second plane rotated with respect to the first plane; and - a generally wedge-shaped intermediate guiding element part connected to or integrally formed with the upstream and downstream guiding element parts and shaped so as to smoothly guide the flattened tubular shrink foil material moving over the first flat plate towards the second flat plate; the device further comprising at least one pair of pressure rollers (90,91,107,108) arranged on either side of the downstream guiding element part and configured to press at least one additional fold into the tubular shrink foil material; characterised in that the circumference (51,52,53) of the guiding element in cross-section is constant over the entire height of the guiding element. - an upstream guiding element part formed by a first flat plate extending in a first plane; - a downstream guiding element part formed by a second flat plate part extending in a second plane rotated with respect to the first plane; and - a generally wedge-shaped intermediate guiding element part connected to or integrally formed with the upstream and downstream guiding element parts and shaped so as to smoothly guide the flattened tubular shrink foil material moving over the first flat plate towards the second flat plate; the device further comprising at least one pair of pressure rollers (90,91,107,108) arranged on either side of the downstream guiding element part and configured to press at least one additional fold into the tubular shrink foil material; characterised in that the circumference (51,52,53) of the guiding element in cross-section is constant over the entire height of the guiding element.
A rotor bearing of a wind turbine having a rolling bearing 3 including an outer ring 5, an inner ring 4 and rolling bodies 6 rolling between the outer ring 5 and the inner ring 4, having a rotor shaft 1 having an axial circumferential section 1.1 with the length L1 between two radial shoulders 7, 9 arranged at an axial distance from one another, which first length receives the inner ring 4 of the rolling bearing 3, and having a rotor 2 connected to the rotor shaft 1, characterised in that the inner ring 4 has a first axial section with the length L2, which corresponds to the axial length L3 of the outer ring 5, and has two second sections 10.1, 10.2 that are axially adjoined to the first section that have different axial lengths L4.1, L4.2 from one another. having a rolling bearing 3 including an outer ring 5, an inner ring 4 and rolling bodies 6 rolling between the outer ring 5 and the inner ring 4, having a rotor shaft 1 having an axial circumferential section 1.1 with the length L1 between two radial shoulders 7, 9 arranged at an axial distance from one another, which first length receives the inner ring 4 of the rolling bearing 3, and having a rotor 2 connected to the rotor shaft 1, characterised in that the inner ring 4 has a first axial section with the length L2, which corresponds to the axial length L3 of the outer ring 5, and has two second sections 10.1, 10.2 that are axially adjoined to the first section that have different axial lengths L4.1, L4.2 from one another.
A protective cover film with an at least double-layered protective coating, in particular varnish film, wherein the protective coat comprises a paper layer and a plastic layer, and wherein the paper layer and the plastic layer are detachably adsorption bonded.