mhurhangee/patent-ind-claim-en huggingface dataset:
A polyethylene production process, comprising: contacting ethylene and a polymerization catalyst under suitable reaction conditions to yield a polymerization product stream; separating a light gas stream from the polymerization product stream, wherein the light gas stream comprises ethane and unreacted ethylene; contacting the light gas stream with an absorption solvent system, wherein at least a portion of the unreacted ethylene from the light gas stream is absorbed by the absorption solvent system, wherein the absorption solvent system comprises copper chloride, aniline, and N-methylpyrrolidone; removing unabsorbed gases of the light gas stream from contact with the absorption solvent system to form a waste gas stream; and recovering unreacted ethylene from the absorption solvent system to yield recovered ethylene; and contacting the recovered ethylene and the polymerization catalyst. contacting ethylene and a polymerization catalyst under suitable reaction conditions to yield a polymerization product stream; separating a light gas stream from the polymerization product stream, wherein the light gas stream comprises ethane and unreacted ethylene; contacting the light gas stream with an absorption solvent system, wherein at least a portion of the unreacted ethylene from the light gas stream is absorbed by the absorption solvent system, wherein the absorption solvent system comprises copper chloride, aniline, and N-methylpyrrolidone; removing unabsorbed gases of the light gas stream from contact with the absorption solvent system to form a waste gas stream; and recovering unreacted ethylene from the absorption solvent system to yield recovered ethylene; and contacting the recovered ethylene and the polymerization catalyst.
A vehicle detection system comprising a control unit , an environment detection system that is adapted to detect objects (4, 5, 6; 17, 18) outside a vehicle , and a driver attentiveness detection system that is adapted to detect eye gaze direction of a driver , where the control unit is adapted to acquire data regarding detected objects (4, 5, 6; 17, 18) from the environment detection system , and to acquire eye gaze direction data from the driver attentiveness detection system , the eye gaze direction data comprising an eye gaze direction vector ( v ), where the control unit is adapted to estimate to which extent a detected object is occupying a driver's field of view by means of a combination of the acquired data, where the control unit is adapted to define the driver's field of view by means of the acquired eye gaze direction data, and to represent the field of view with at least one cone having a corresponding base , characterized in that the base comprises a pattern of sample points (13; 13 A , 13 B ), where the sample points (13; 13 A , 13 B ) represent the effective field of view, where the control unit is adapted to estimate to which extent a detected object is occupying a driver's field of view by determining how many sample points that coincide with the detected object , wherein there are at least two field of views with a corresponding base and base area (S A , S B ), where each base area (S A , S B ) comprises a corresponding sub-pattern of sample points (13 A , 13 B ), where at least two sub-patterns of sample points (13 A , 13 B ) have mutually different pattern density, where a more remote base area (S B ) has a denser sub-pattern of sample points (13 B ) than a less remote base area (S A ).
A method for identifying an antigen that generates a CD4+ T-cell response in a human comprising exposing a rodent to a putative antigen, allowing the rodent to generate an immune response, detecting a CD4+ T cell response that is specific for the antigen; and identifying the antigen, wherein the rodent comprises (i) at an endogenous MHC II α gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II α polypeptide and (ii) at an endogenous MHC II β gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II β polypeptide, wherein a human portion of the chimeric human/rodent MHC II α polypeptide comprises human MHC II α1 and a2 domains and a human portion of the chimeric human/rodent MHC II β polypeptide comprises human MHC II β1 and β2 domains, wherein the rodent expresses a functional chimeric MHC II complex comprising the chimeric human/rodent MHC II α polypeptide and the chimeric human/rodent MHC II β polypeptide on the surface of a cell of the rodent. exposing a rodent to a putative antigen, allowing the rodent to generate an immune response, detecting a CD4+ T cell response that is specific for the antigen; and identifying the antigen, wherein the rodent comprises (i) at an endogenous MHC II α gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II α polypeptide and (ii) at an endogenous MHC II β gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II β polypeptide, (i) at an endogenous MHC II α gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II α polypeptide and (ii) at an endogenous MHC II β gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II β polypeptide, wherein a human portion of the chimeric human/rodent MHC II α polypeptide comprises human MHC II α1 and a2 domains and a human portion of the chimeric human/rodent MHC II β polypeptide comprises human MHC II β1 and β2 domains, wherein the rodent expresses a functional chimeric MHC II complex comprising the chimeric human/rodent MHC II α polypeptide and the chimeric human/rodent MHC II β polypeptide on the surface of a cell of the rodent.
An apparatus for heat assisted magnetic recording comprising: a signal generator operable to generate a laser trigger pulse signal using a same clock signal used to clock a magnetic write data signal ; a variable delay element operable to control an alignment between the laser trigger pulse signal and the magnetic write data signal ; a laser pulse data processor including a triggerable pulse generator circuit operable to generate a laser pulse control signal based on the laser trigger pulse signal ; a magnetic write head operable to record data to a magnetic storage medium under control of the magnetic write data signal ; and a laser diode operable to heat the magnetic storage medium under control of the laser pulse control signal wherein the laser diode is pulsed in conjunction with the data recorded by the magnetic write head , characterized by a phase difference detector operable to control the variable delay element and the laser pulse data processor ; and in that a shifted clock signal is provided by the variable delay element , the laser trigger pulse signal being generated at a transition rate of the magnetic write data by a D flip flop based on the shifted clock signal , the D flip flop transforming the shifted clock signal from a form having one electrical cycle per written bit to one having one edge per bit. a signal generator operable to generate a laser trigger pulse signal using a same clock signal used to clock a magnetic write data signal ; a variable delay element operable to control an alignment between the laser trigger pulse signal and the magnetic write data signal ; a laser pulse data processor including a triggerable pulse generator circuit operable to generate a laser pulse control signal based on the laser trigger pulse signal ; a magnetic write head operable to record data to a magnetic storage medium under control of the magnetic write data signal ; and a laser diode operable to heat the magnetic storage medium under control of the laser pulse control signal wherein the laser diode is pulsed in conjunction with the data recorded by the magnetic write head , characterized by a phase difference detector operable to control the variable delay element and the laser pulse data processor ; and in that a shifted clock signal is provided by the variable delay element , the laser trigger pulse signal being generated at a transition rate of the magnetic write data by a D flip flop based on the shifted clock signal , the D flip flop transforming the shifted clock signal from a form having one electrical cycle per written bit to one having one edge per bit.
A liquefier assembly for use in an extrusion-based additive manufacturing system , the liquefier assembly comprising: a downstream portion comprising a first end and a second end opposite of the first end along a longitudinal length of the liquefier assembly , wherein the downstream portion has a first average inner cross-sectional area; an upstream portion disposed adjacent to the first end of the downstream portion , the upstream portion being configured to receive a consumable material , wherein the upstream portion has a second average inner cross-sectional area that is less than the first inner cross-sectional area; a shoulder defined by the upstream portion and positioned between the first inner cross-sectional area and the second inner cross-sectional area, the shoulder position between the upstream portion and the downstream portion to restrict movement of a melt meniscus of the consumable material ; an external heat transfer component extending around the downstream portion between the first end and the second end of the downstream portion , the external heat transfer component being configured to conduct heat to the consumable material within the downstream portion ; and an extrusion tip disposed at the second end of the downstream portion . a downstream portion comprising a first end and a second end opposite of the first end along a longitudinal length of the liquefier assembly , wherein the downstream portion has a first average inner cross-sectional area; an upstream portion disposed adjacent to the first end of the downstream portion , the upstream portion being configured to receive a consumable material , wherein the upstream portion has a second average inner cross-sectional area that is less than the first inner cross-sectional area; a shoulder defined by the upstream portion and positioned between the first inner cross-sectional area and the second inner cross-sectional area, the shoulder position between the upstream portion and the downstream portion to restrict movement of a melt meniscus of the consumable material ; an external heat transfer component extending around the downstream portion between the first end and the second end of the downstream portion , the external heat transfer component being configured to conduct heat to the consumable material within the downstream portion ; and an extrusion tip disposed at the second end of the downstream portion .
A short-circuit isolator for electrically isolating a short circuit in a fire protection system , the short-circuit isolator comprising a wireless communications module ; characterised in that the short-circuit isolator comprises: one or more instruments configured to measure the health of the fire protection system at the point where the short-circuit isolator is located, wherein the one or more instruments are configured to monitor at least one of: an operating current intensity on the wiring where the short-circuit isolator is located, operating voltages on the wiring where the short-circuit isolator is located, and a line resistance of the wiring; and a memory configured to store the data relating to health of the fire protection system at the short-circuit isolator, wherein the short-circuit isolator is configured to transmit at least part of the data from the memory via the wireless communications module . one or more instruments configured to measure the health of the fire protection system at the point where the short-circuit isolator is located, wherein the one or more instruments are configured to monitor at least one of: an operating current intensity on the wiring where the short-circuit isolator is located, operating voltages on the wiring where the short-circuit isolator is located, and a line resistance of the wiring; and a memory configured to store the data relating to health of the fire protection system at the short-circuit isolator, wherein the short-circuit isolator is configured to transmit at least part of the data from the memory via the wireless communications module .
A vertical wind turbine comprising a cell with a plurality of vertical blades (13; F1-F6), each mounted rotatably at the bottom and top at the end of a radial arm, which are arranged within the cell distributed on a concentric circle around a vertical machine axis (MA) and are jointly movable on this circle and connected in a rotationally fixed manner to a main shaft , wherein the blades (13; F1-F6) in the cell are each mounted individually rotatably about a vertical axis of rotation extending in particular through their interior, and wherein means (39; 39a, b; 49, 50; 52) are associated with each of the blades (13; F1-F6), with which during rotation about the machine axis (MA) the blade (13; F1-F6) can be moved independently of the other blades into a predetermined and at any time changeable rotational position about its axis of rotation , wherein the arms respectively form a fictive ring at the top and bottom of the cell, characterised in that a wind measurement device (W1-W3) per ring is attached at the outside of one of the radial arms respectively.
Underwater craft less likely to be detected, wherein the underwater craft comprises an outer hull , wherein the underwater craft comprises a bow section , a stern section and a midship section , wherein the underwater craft comprises a substantially cylindrical pressure vessel under the outer hull , wherein the outer hull of the midship section has a polygonal cross section transversely with respect to the longitudinal direction of the underwater craft , wherein the polygonal cross section has three to 10 corners, wherein the outer hull of the midship section comprises a curvature along the longitudinal direction of the underwater craft over the entire length of the midship section , characterized in that the outer hull of the midship section comprises a curvature along the longitudinal direction of the underwater craft over the entire cross section transversely with respect to the longitudinal direction of the underwater craft .
Seating furniture, comprising a support , two legs and at least two frames which are arranged at a distance to each other on the support , between which frames a seat part and a back part can be suspended, and wherein the frames each have a top frame part and a bottom frame part by which the seat part and the back part are mechanically fixable at the periphery, and wherein the support includes a horizontal bar extending between the two legs on which the frames are mounted as an end frame or intermediate frame via respective frame sockets , wherein the bar comprises a linking piece which is put in a row vertical with the frame socket of an end frame and with a leg , on a detachable, form-fitting pin connection by integrating the bar .
A method of flexible allocation of resources for a wireless network performed by a network device, the method comprising: determining , in a wireless network, a number of available resources reserved for a category of user devices; determining a number of user devices, within the category of user devices, that are connected to the network device; determining whether the number of available resources for the category of user devices is greater than or equal to the number of connected user devices within the category of user devices; transmitting an allocation of resources to one or more user devices within the category of user devices using a scheduling-based resource allocation if the number of available resources for the category is greater than or equal to the number of connected user devices within the category of user devices; and otherwise, broadcasting an allocation of resources to the one or more user devices within the category of user devices using a contention-based resource allocation if the number of available resources for the category is less than the number of connected user devices within the category of user devices. determining , in a wireless network, a number of available resources reserved for a category of user devices; determining a number of user devices, within the category of user devices, that are connected to the network device; determining whether the number of available resources for the category of user devices is greater than or equal to the number of connected user devices within the category of user devices; transmitting an allocation of resources to one or more user devices within the category of user devices using a scheduling-based resource allocation if the number of available resources for the category is greater than or equal to the number of connected user devices within the category of user devices; and otherwise, broadcasting an allocation of resources to the one or more user devices within the category of user devices using a contention-based resource allocation if the number of available resources for the category is less than the number of connected user devices within the category of user devices.
One or more inhibitors of CDK8/19 for use in suppressing neointimal formation resulting from vascular surgery.
A material for forming an organic film, comprising: a compound shown by the following general formula ; and an organic solvent, wherein X represents an organic group having a valency of n1 and 2 to 50 carbon atoms; n1 represents an integer of 1 to 10; and R 1 represents at least one or more of the following general formulae to , wherein an asterisk represents a bonding site to the organic group X; n2 represents 0 or 1; n3 and n4 represent integers satisfying relations of 0≤n3≤2, 0≤n4≤2, and 1≤n3+n4≤2; R 2 represents any of a hydrogen atom, an allyl group, and a propargyl group; and R 3 represents any of a hydrogen atom, a methyl group, and a phenyl group, wherein an asterisk represents a bonding site to the organic group X; n5 represents 0 or 1; n6 and n7 represent integers satisfying relations of 0≤n6≤2, 0≤n7≤2, and 1≤n6+n7≤2; R 4 represents any of a hydrogen atom, an allyl group, and a propargyl group; and R 5 represents any of a hydrogen atom, a methyl group, and a phenyl group, and wherein an asterisk represents a bonding site to the organic group X; and R 6 represents a monovalent organic group having an unsaturated bond and 1 to 10 carbon atoms. a compound shown by the following general formula ; and an organic solvent, wherein X represents an organic group having a valency of n1 and 2 to 50 carbon atoms; n1 represents an integer of 1 to 10; and R 1 represents at least one or more of the following general formulae to , wherein an asterisk represents a bonding site to the organic group X; n2 represents 0 or 1; n3 and n4 represent integers satisfying relations of 0≤n3≤2, 0≤n4≤2, and 1≤n3+n4≤2; R 2 represents any of a hydrogen atom, an allyl group, and a propargyl group; and R 3 represents any of a hydrogen atom, a methyl group, and a phenyl group, wherein an asterisk represents a bonding site to the organic group X; n5 represents 0 or 1; n6 and n7 represent integers satisfying relations of 0≤n6≤2, 0≤n7≤2, and 1≤n6+n7≤2; R 4 represents any of a hydrogen atom, an allyl group, and a propargyl group; and R 5 represents any of a hydrogen atom, a methyl group, and a phenyl group, and wherein an asterisk represents a bonding site to the organic group X; and R 6 represents a monovalent organic group having an unsaturated bond and 1 to 10 carbon atoms.
Roller for a roller furnace with a roller base body and a coating on the surface, wherein the coating has at least one layer, containing: 10.0 - 30.0 wt.-% Si 10.0 - 30.0 wt.-% Al(OH) 3 1.0 - 3.0 wt.-% B 4 C 0.5 - 1.5 wt.-% Y 2 O 3 0.1 - 1.0 wt.-% Fe 2 O 3 and the remainder Al 2 O 3 . 10.0 - 30.0 wt.-% Si 10.0 - 30.0 wt.-% Al(OH) 3 1.0 - 3.0 wt.-% B 4 C 0.5 - 1.5 wt.-% Y 2 O 3 0.1 - 1.0 wt.-% Fe 2 O 3 and the remainder Al 2 O 3 .
A method in a computing system that implements a video decoder , the method comprising: receiving and parsing a syntax element that indicates a maximum size of frame memory for reordering, wherein the maximum size of frame memory for reordering is expressed in terms of a maximum count of frames that can precede any frame of a video sequence in coded order but follow that frame in output order; receiving and parsing one or more different syntax elements that indicate a constraint on frame reordering latency, wherein the constraint on frame reordering latency is expressed in terms of a maximum count of frames that can precede any frame of the video sequence in output order but follow that frame in coded order; receiving encoded data for plural frames of the video sequence; with the video decoder, decoding at least some of the encoded data to reconstruct one of the plural frames; and outputting the reconstructed frame. receiving and parsing a syntax element that indicates a maximum size of frame memory for reordering, wherein the maximum size of frame memory for reordering is expressed in terms of a maximum count of frames that can precede any frame of a video sequence in coded order but follow that frame in output order; receiving and parsing one or more different syntax elements that indicate a constraint on frame reordering latency, wherein the constraint on frame reordering latency is expressed in terms of a maximum count of frames that can precede any frame of the video sequence in output order but follow that frame in coded order; receiving encoded data for plural frames of the video sequence; with the video decoder, decoding at least some of the encoded data to reconstruct one of the plural frames; and outputting the reconstructed frame.
Method for adapting a control menu (M) of a controller of a withdrawal unit for drinking water having a command input element in the form of a rotary pushbutton , for selection of a control menu item (P) of the control menu (M), wherein switching between control menu items (P) of the control menu (M) is effected by rotating the rotary pushbutton and a control menu item (P) is selected by pressing the rotary pushbutton , the withdrawal unit being communicatively connected to one or more devices to form a network , characterised by the steps: - connection (VV) of a new device to the network , - automatic transmission (SV) of a physical address (A) of the new device to the withdrawal unit via the network , - automatic creation (EV) of a new device register (R) with the physical address (A) of the new device in the controller of the withdrawal unit , and - automatic adaptation of the control menu (M) of the withdrawal unit to the new device register (R) by automatic creation of a control menu item (P) in the control menu (M) which represents the new device , so that the new device can be actuated via the rotary pushbutton . - connection (VV) of a new device to the network , - automatic transmission (SV) of a physical address (A) of the new device to the withdrawal unit via the network , - automatic creation (EV) of a new device register (R) with the physical address (A) of the new device in the controller of the withdrawal unit , and - automatic adaptation of the control menu (M) of the withdrawal unit to the new device register (R) by automatic creation of a control menu item (P) in the control menu (M) which represents the new device , so that the new device can be actuated via the rotary pushbutton .