mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a polyethylene composition, the method comprising contacting ethylene and optionally zero, one, or more (C 3 -C 20 )alpha-olefin with a -zirconocene-titanocene catalyst system comprising a zirconocene catalyst and a titanocene catalyst, wherein the zirconocene catalyst comprises a product of an activation reaction of ((R 1 ) X -cyclopentadienyl)((R 2 ) y -cyclopentadienyl)zirconium dichloride/dibromide/dialkyl and an alkylaluminoxane, wherein subscript x is 1 or 2; subscript y is 0, 1 or 2; and each R 1 and R 2 independently is methyl, ethyl, a normal-(C 3 -C 10 )alkyl (linear), or an iso-(C 3 -C 10 )alkyl; and wherein the titanocene catalyst comprises a product of an activation reaction of bis(cyclopentadienyl)titanium dichloride with a trialkylaluminum; wherein the zirconocene-titanocene catalyst system is characterized by a weight/weight ratio of trialkylaluminum to the zirconocene catalyst from 0.005 to 0.25; and wherein the zirconocene-titanocene catalyst system is characterized by a weight/weight ratio of bis(cyclopentadienyl)titanium dichloride to the zirconocene catalyst from 0.001 to 0.05, in a polymerization reactor to generate a polymerization reaction giving a polyethylene composition comprising a polyethylene homopolymer or ethylene/(C 3 -C 20 )alpha-olefin copolymer, respectively, and the zirconocene-titanocene catalyst system, or a by-product thereof wherein the method comprises feeding separately the zirconocene catalyst and the titanocene catalyst via separate reactor inlets into the polymerization reactor, thereby making the zirconocene-titanocene catalyst system in situ in the polymerization reactor.
A system box for holding a bag system , the system box comprising: a first chamber comprising a first opening ; a second chamber comprising a second opening ; a lid movable from an open position to a closed position, the lid comprising an interior surface and an exterior surface, wherein when the lid is in the closed position the interior surface covers at least a portion of the first opening; characterized in that the lid further comprises a first arm and a second arm ; wherein the system box further comprises a latch system with a first hook for engaging the first arm of the lid and a second hook for engaging the second arm of the lid, and a first valve connected to the latch system, wherein when the lid engages at least one of the first hook or the second hook, the first valve is closed. a first chamber comprising a first opening ; a second chamber comprising a second opening ; a lid movable from an open position to a closed position, the lid comprising an interior surface and an exterior surface, wherein when the lid is in the closed position the interior surface covers at least a portion of the first opening; characterized in that the lid further comprises a first arm and a second arm ; wherein the system box further comprises a latch system with a first hook for engaging the first arm of the lid and a second hook for engaging the second arm of the lid, and a first valve connected to the latch system, wherein when the lid engages at least one of the first hook or the second hook, the first valve is closed.
An indication information receiving method, wherein the method comprises: receiving, by a terminal , first indication information, wherein the first indication information is used to indicate a time domain position at which second indication information is monitored; monitoring, by the terminal , the second indication information at the indicated time domain position and receiving, by the terminal , the second indication information, wherein the second indication information comprises slot format information of one or more slots corresponding to a channel occupancy time of a network device and a type of the OFDM symbol in the one or more slots; and sending and/or receiving, by the terminal , data or a signal based on the type of a OFDM symbol in the one or more slots indicated by the second indication information, wherein the type of the OFDM symbol includes the following several types: an OFDM symbol used for uplink transmission, an OFDM symbol used for downlink transmission, an OFDM symbol used for flexible transmission, wherein the time domain position indicated by the first indication information comprises another symbol other than first three symbols in the one or more slots receiving, by a terminal , first indication information, wherein the first indication information is used to indicate a time domain position at which second indication information is monitored; monitoring, by the terminal , the second indication information at the indicated time domain position and receiving, by the terminal , the second indication information, wherein the second indication information comprises slot format information of one or more slots corresponding to a channel occupancy time of a network device and a type of the OFDM symbol in the one or more slots; and sending and/or receiving, by the terminal , data or a signal based on the type of a OFDM symbol in the one or more slots indicated by the second indication information, wherein the type of the OFDM symbol includes the following several types: an OFDM symbol used for uplink transmission, an OFDM symbol used for downlink transmission, an OFDM symbol used for flexible transmission, wherein the time domain position indicated by the first indication information comprises another symbol other than first three symbols in the one or more slots
An oncolytic HSV vector comprising one or more expression cassettes for IL12, IL15, and an IL15Receptor alpha subunit.
A back grinding tape comprising, in this order: a hard coating layer; an intermediate layer comprising a polyurethane-based resin; and an adhesive layer, wherein a sum of polar energy values of the hard coating layer and the intermediate layer calculated according to Mathematical Equation 1 is 13 mN/m to 17 mN/m (13 dyne/cm to 17 dyne/cm), and the polar energy value of the intermediate layer calculated according to the Mathematical Equation 1 is 3.5 mN/m (3.5 dyne/cm) or less: Polar Energy mN / m = Surface free energy mN / m − Dispersion mN / m wherein, in the Equation, the surface free energy and the dispersion are measured using water and diiodomethane (CH 2 I 2 ) solutions according to a Wu-harmonic method; wherein the hard coating layer comprises one or more selected from the group consisting of a polyester-based compound, an acryl-based compound, a cellulose acetate-based compound, and a polycaprolactone-based compound; the intermediate layer comprising the polyurethane-based resin is formed of a composition for forming an intermediate layer comprising a polyurethane-based resin, acrylate-based monomers, a curing agent, and a photoinitiator; the acrylate-based monomers include hydroxy group-containing acrylate-based monomers; the hydroxy group-containing acrylate-based monomers are included in a content of 1 to 25 wt%, based on total content of the composition; and the adhesive layer is formed of a composition for forming an adhesive layer comprising an acrylate-based thermosetting resin, a curing agent, a photoinitiator, and a solvent. wherein a sum of polar energy values of the hard coating layer and the intermediate layer calculated according to Mathematical Equation 1 is 13 mN/m to 17 mN/m (13 dyne/cm to 17 dyne/cm), and the polar energy value of the intermediate layer calculated according to the Mathematical Equation 1 is 3.5 mN/m (3.5 dyne/cm) or less: Polar Energy mN / m = Surface free energy mN / m − Dispersion mN / m wherein, in the Equation, the surface free energy and the dispersion are measured using water and diiodomethane (CH 2 I 2 ) solutions according to a Wu-harmonic method; wherein the hard coating layer comprises one or more selected from the group consisting of a polyester-based compound, an acryl-based compound, a cellulose acetate-based compound, and a polycaprolactone-based compound; the intermediate layer comprising the polyurethane-based resin is formed of a composition for forming an intermediate layer comprising a polyurethane-based resin, acrylate-based monomers, a curing agent, and a photoinitiator; the acrylate-based monomers include hydroxy group-containing acrylate-based monomers; the hydroxy group-containing acrylate-based monomers are included in a content of 1 to 25 wt%, based on total content of the composition; and the adhesive layer is formed of a composition for forming an adhesive layer comprising an acrylate-based thermosetting resin, a curing agent, a photoinitiator, and a solvent.
Tobacco pouch comprising a main compartment to house tobacco, the pouch being made of a flexible flat material with an inner surface facing the interior of the main compartment and an outer surface facing the exterior of the main compartment, wherein the flexible flat material comprises a printed element visible from the exterior of the main compartment, and wherein two outside surfaces of the flexible flat material are permanently sealed together to form a seam of the pouch, wherein the flexible flat material comprises or consists of a laminate of a plurality of polymer layers, wherein the laminate comprises an opaque inner layer ; a transparent outer layer ; one or more additional layers ; and a printed element arranged on or between an inward surface of the transparent outer layer and an outward surface of the opaque inner layer , characterized in that said one or more additional layers are each independently arranged between the opaque inner layer and the transparent outer layer and wherein the one or more additional layers each independently comprises or consists of polyethylene (PE), metallized polyethylene terephthalate (MPET), polypropylene (PP), cast polypropylene (CPP) or oriented polypropylene (OPP).
A light extraction substrate , comprising: a glass substrate having a thickness in the range of 1 mm to 10 mm and having a first surface and a second surface ; a first light extraction region formed by oxide nanoparticles incorporated into a region of the glass adjacent the first surface up to a depth of 50 μm with respect to the first surface; and a second light extraction region on at least a portion of the second surface the second light extraction region having a surface roughness of at least 10 nm, wherein the glass substrate has a visible light transmission at 550 nm of greater than or equal to 85 % at a 3.2 mm reference thickness. a glass substrate having a thickness in the range of 1 mm to 10 mm and having a first surface and a second surface ; a first light extraction region formed by oxide nanoparticles incorporated into a region of the glass adjacent the first surface up to a depth of 50 μm with respect to the first surface; and a second light extraction region on at least a portion of the second surface the second light extraction region having a surface roughness of at least 10 nm, wherein the glass substrate has a visible light transmission at 550 nm of greater than or equal to 85 % at a 3.2 mm reference thickness.
A method in a first node for wireless communications, comprising: transmitting a first sequence and a first radio signal, the first sequence being associated with the first radio signal; and receiving a second radio signal; wherein the first radio signal is used to carry a target identifier; the second radio signal comprises a first information block, the first information block comprises a first field and a second field, the first field only comprises one bit, the second field is used to determine a first value, and the first value is a non-negative integer; the first field and a value interval to which the first value belongs are used to determine whether the second radio signal comprises a second information block, the second information block comprises a first-type identifier, and the target identifier belongs to the first-type identifier; the first sequence and the first radio signal are respectively transmitted on a Physical Random Access Channel, PRACH, and a Physical Uplink Shared Channel, PUSCH; the first information block is a Multimedia Access Control, MAC, subheader; and the second information block is a MAC payload. transmitting a first sequence and a first radio signal, the first sequence being associated with the first radio signal; and receiving a second radio signal; wherein the first radio signal is used to carry a target identifier; the second radio signal comprises a first information block, the first information block comprises a first field and a second field, the first field only comprises one bit, the second field is used to determine a first value, and the first value is a non-negative integer; the first field and a value interval to which the first value belongs are used to determine whether the second radio signal comprises a second information block, the second information block comprises a first-type identifier, and the target identifier belongs to the first-type identifier; the first sequence and the first radio signal are respectively transmitted on a Physical Random Access Channel, PRACH, and a Physical Uplink Shared Channel, PUSCH; the first information block is a Multimedia Access Control, MAC, subheader; and the second information block is a MAC payload.
Control unit for controlling operation of a heat generation installation of an energy system, in particular of a building, the energy system being linked to a heat network , and feeding-in and/or outputting of a thermal power into the heat network being controllable by means of the control unit , a weighting g e,t being associated with the feeding-in, a weighting g d,t being associated with the outputting, and a weighting g i,t being associated with heat generation by the heat generation installation , characterized in that the control unit is designed: - to determine an excess thermal power P excess , t th from the difference between a maximum thermal power P max , t th of the heat generation installation and a thermal power P demand , t th required for the energy system; - to operate the heat generation installation for providing the required thermal power P demand , t th in the time steps for which P demand , t th ⋅ g d , t ≥ P max , t th ⋅ g i , t − P excess , t th ⋅ g e , t ; and - to output the excess thermal power P excess , t th generated by the heat generation installation at these points in time into the heat network . - to determine an excess thermal power P excess , t th from the difference between a maximum thermal power P max , t th of the heat generation installation and a thermal power P demand , t th required for the energy system; - to operate the heat generation installation for providing the required thermal power P demand , t th in the time steps for which P demand , t th ⋅ g d , t ≥ P max , t th ⋅ g i , t − P excess , t th ⋅ g e , t ; and - to output the excess thermal power P excess , t th generated by the heat generation installation at these points in time into the heat network .
A puller/installer comprising: a draw plate defining a draw plate cam surface , and a threaded central hole ; a split ring defining at least one split ring cam surface , the split ring being arranged such that the at least one split ring cam surface is in contact with the draw plate cam surface ; a cap plate defining at least one through hole ; a rod comprising a threaded proximal end engaging the threaded central hole ; and an anchor , the rod supported for movement relative to the anchor characterised in that : the draw plate further defines at least one threaded opening ; and the puller/installer further comprises: at least one draw member comprising a bolt inserted through the at least one through hole and threaded into the at least one threaded opening such that rotation of the bolt draws the cap plate and the draw plate towards each other such that the draw plate cam surface engages the at least one split ring cam surface to deform the split ring to alter an effective diameter of the puller/installer , wherein the rod is for being displaced by a drive system relative to the anchor to displace the draw plate relative to the anchor . a draw plate defining a draw plate cam surface , and a threaded central hole ; a split ring defining at least one split ring cam surface , the split ring being arranged such that the at least one split ring cam surface is in contact with the draw plate cam surface ; a cap plate defining at least one through hole ; a rod comprising a threaded proximal end engaging the threaded central hole ; and an anchor , the rod supported for movement relative to the anchor characterised in that : the draw plate further defines at least one threaded opening ; and the puller/installer further comprises: at least one draw member comprising a bolt inserted through the at least one through hole and threaded into the at least one threaded opening such that rotation of the bolt draws the cap plate and the draw plate towards each other such that the draw plate cam surface engages the at least one split ring cam surface to deform the split ring to alter an effective diameter of the puller/installer , wherein the rod is for being displaced by a drive system relative to the anchor to displace the draw plate relative to the anchor . the draw plate further defines at least one threaded opening ; and the puller/installer further comprises: at least one draw member comprising a bolt inserted through the at least one through hole and threaded into the at least one threaded opening such that rotation of the bolt draws the cap plate and the draw plate towards each other such that the draw plate cam surface engages the at least one split ring cam surface to deform the split ring to alter an effective diameter of the puller/installer ,
A method for manufacturing an engine component comprising the steps of: forming the component on a substrate by adding metal and melting it to provide molten metal in a layer by layer (56a - 56n) fashion to form said component into a desired shape, said component having an outer surface ; characterised in a further method step of re-melting at least part of said outer surface at an interface between the component and the substrate is performed and wherein said at least part of said outer surface assumes a concave curvature and at least part of the outer surface is defined by the ends of the layers in a layer extension direction.
An apparatus for simulating motion, comprising: a base ; a seat with a seat pan and a seat back , the seat having a roll axis (R) and, orthogonal thereto, a pitch axis (P); a mount mounting the seat to the base at least pivotably about said roll axis (R) and said pitch axis (P); and a left seat back flap and a right seat back flap each of which being pivotably attached to a respective side of the seat back ; characterized by a linkage linking said seat back flaps to the base so that, when any one of the sides of the seat back is moved towards the base , the respective seat back flap is pivoted inwards and, when said side of the seat back is moved away from the base , said seat back flap is pivoted outwards. a base ; a seat with a seat pan and a seat back , the seat having a roll axis (R) and, orthogonal thereto, a pitch axis (P); a mount mounting the seat to the base at least pivotably about said roll axis (R) and said pitch axis (P); and a left seat back flap and a right seat back flap each of which being pivotably attached to a respective side of the seat back ; characterized by a linkage linking said seat back flaps to the base so that, when any one of the sides of the seat back is moved towards the base , the respective seat back flap is pivoted inwards and, when said side of the seat back is moved away from the base , said seat back flap is pivoted outwards.
A processor comprising: fetch circuitry to fetch a single instruction to access a compressed list; decode circuitry to decode the fetched single instruction; and execution circuitry to execute the decoded single instruction to cause access to the compressed list by: receiving, from a load store queue , at a first op-engine associated with a first data location , an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location , and compute the second data location associated with a second pointer; computing, via the first op-engine , a second data location associated with a second op-engine , wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine , a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine , a data response to the load store queue responsive to receiving data from the third data location . fetch circuitry to fetch a single instruction to access a compressed list; decode circuitry to decode the fetched single instruction; and execution circuitry to execute the decoded single instruction to cause access to the compressed list by: receiving, from a load store queue , at a first op-engine associated with a first data location , an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location , and compute the second data location associated with a second pointer; computing, via the first op-engine , a second data location associated with a second op-engine , wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine , a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine , a data response to the load store queue responsive to receiving data from the third data location . receiving, from a load store queue , at a first op-engine associated with a first data location , an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location , and compute the second data location associated with a second pointer; computing, via the first op-engine , a second data location associated with a second op-engine , wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine , a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine , a data response to the load store queue responsive to receiving data from the third data location .
A method of providing a terminal comprising: providing a body with a flexible beam and a stationary beam that oppose each other, the body further including a first securing tab and a first slot ; providing a covering with an upper section and lower section having a middle wall separating the sections, the middle wall having a stiffening beam formed therefrom, the covering further including a second securing tab ; wherein the body and the covering are formed separately; joining the covering to the body by inserting the body into the lower section so the stiffening beam engages the flexible beam ; and forming the covering so that the first securing tab and the second securing tab extend through the first slot . providing a body with a flexible beam and a stationary beam that oppose each other, the body further including a first securing tab and a first slot ; providing a covering with an upper section and lower section having a middle wall separating the sections, the middle wall having a stiffening beam formed therefrom, the covering further including a second securing tab ; wherein the body and the covering are formed separately; joining the covering to the body by inserting the body into the lower section so the stiffening beam engages the flexible beam ; and forming the covering so that the first securing tab and the second securing tab extend through the first slot .