mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a polydiene, the process comprising the steps of: a. providing a solution comprising an aluminoxane and an organoaluminum compound, the organoaluminum compound not being an aluminoxane, and combining the solution with a lanthanide compound to form a lanthanide catalyst component; b. aging the lanthanide catalyst component to form an aged lanthanide catalyst component, the aging of the lanthanide catalyst component comprising mixing; c. combining the aged lanthanide catalyst component with a halogen source to form an active catalyst system; d. aging the active catalyst system to form an aged active catalyst system, the aging of the active catalyst system comprising mixing; and e. adding the aged active catalyst system to a polymerization vessel to polymerize conjugated diene monomer. a. providing a solution comprising an aluminoxane and an organoaluminum compound, the organoaluminum compound not being an aluminoxane, and combining the solution with a lanthanide compound to form a lanthanide catalyst component; b. aging the lanthanide catalyst component to form an aged lanthanide catalyst component, the aging of the lanthanide catalyst component comprising mixing; c. combining the aged lanthanide catalyst component with a halogen source to form an active catalyst system; d. aging the active catalyst system to form an aged active catalyst system, the aging of the active catalyst system comprising mixing; and e. adding the aged active catalyst system to a polymerization vessel to polymerize conjugated diene monomer.
A process for producing an oil product, the process comprising the steps of (i) treating, in a reactor, a composition comprising (a) vegetative plant parts from an angiosperm, wherein said vegetative plant parts have a dry weight of at least 2g and have a total non-polar lipid content of at least 5% by weight on a dry weight basis, (b) a solvent which comprises water, an alcohol, or both, and (c) optionally a catalyst, wherein the treatment comprises heating the composition at a temperature between 50°C and 450°C and at a pressure between 5 and 350 bar for between 1 and 120 minutes in an oxidative, reductive or inert environment, (ii) recovering oil product from the reactor at a yield of at least 35% by weight relative to the dry weight of the vegetative plant parts, thereby producing the oil product. (i) treating, in a reactor, a composition comprising (a) vegetative plant parts from an angiosperm, wherein said vegetative plant parts have a dry weight of at least 2g and have a total non-polar lipid content of at least 5% by weight on a dry weight basis, (b) a solvent which comprises water, an alcohol, or both, and (c) optionally a catalyst, wherein the treatment comprises heating the composition at a temperature between 50°C and 450°C and at a pressure between 5 and 350 bar for between 1 and 120 minutes in an oxidative, reductive or inert environment, (a) vegetative plant parts from an angiosperm, wherein said vegetative plant parts have a dry weight of at least 2g and have a total non-polar lipid content of at least 5% by weight on a dry weight basis, (b) a solvent which comprises water, an alcohol, or both, and (c) optionally a catalyst, (ii) recovering oil product from the reactor at a yield of at least 35% by weight relative to the dry weight of the vegetative plant parts, thereby producing the oil product.
A packaging material comprising a layer that comprises at least 60% by weight of microfibrillated cellulose and an aluminium layer having a thickness of 0.1-20 μm, wherein the layer comprising microfibrillated cellulose is laminated or extrusion coated with at least 5 g/m 2 of a thermoplastic polymer and wherein the amount of aluminium is sufficient to make the packaging material heat sealable by induction and wherein the grammage of the layer that comprises microfibrillated cellulose is 10-50 gsm.
A modular container system for radioactive waste comprising: a plurality of standardized enclosure envelopes each of which defines a cavity configured to receive the radioactive waste, and a plurality of shielding inserts configured to be positioned in the cavity of each of the plurality of standardized enclosure envelopes , wherein the plurality of shielding inserts are self-locking in position in the cavity ; wherein each of the plurality of standardized enclosure envelopes have the same size cavity; wherein the plurality of standardized enclosure envelopes have different variants for radioactive waste of different activity levels, including a first variant and a second variant, with the first variant being more robust and configured for use with more active radioactive waste than the second variant; and wherein the plurality of shielding inserts have different thicknesses and/or material types for radioactive waste of different activity levels. a plurality of standardized enclosure envelopes each of which defines a cavity configured to receive the radioactive waste, and a plurality of shielding inserts configured to be positioned in the cavity of each of the plurality of standardized enclosure envelopes , wherein the plurality of shielding inserts are self-locking in position in the cavity ; wherein the plurality of standardized enclosure envelopes have different variants for radioactive waste of different activity levels, including a first variant and a second variant, with the first variant being more robust and configured for use with more active radioactive waste than the second variant; and wherein the plurality of shielding inserts have different thicknesses and/or material types for radioactive waste of different activity levels.
A method for wireless communications, comprising: determining (1905; 2005; 2105; 2205; 2305) a first subframe structure having a first subframe duration for communicating in a first carrier; determining (1910; 2010; 2110; 2210; 2310) a second subframe structure having a second subframe duration for communicating in a second carrier, the second subframe duration being different from the first subframe duration; allocating resources using at least a pair of adjacent resource blocks, RBs, of the second subframe structure, the adjacent RBs of the second subframe structure functioning together as a single RB of the first subframe structure; and communicating (1915; 2020; 2120; 2220; 2315, 2320) with at least one node using at least the second subframe structure having the second subframe duration based on the allocating. determining (1905; 2005; 2105; 2205; 2305) a first subframe structure having a first subframe duration for communicating in a first carrier; determining (1910; 2010; 2110; 2210; 2310) a second subframe structure having a second subframe duration for communicating in a second carrier, the second subframe duration being different from the first subframe duration; allocating resources using at least a pair of adjacent resource blocks, RBs, of the second subframe structure, the adjacent RBs of the second subframe structure functioning together as a single RB of the first subframe structure; and communicating (1915; 2020; 2120; 2220; 2315, 2320) with at least one node using at least the second subframe structure having the second subframe duration based on the allocating.
A spacecraft servicing pod, comprising: a body configured to be detached and depleted from a host spacecraft at a location adjacent a target spacecraft , the host spacecraft housing a plurality of spacecraft servicing pods ; at least one spacecraft servicing component configured to perform at least one servicing operation on the target spacecraft while being coupled to the target spacecraft , wherein the at least one spacecraft servicing component comprises a thruster assembly configured to alter at least one of an orbit, a velocity, or a momentum of the target spacecraft when coupled to the target spacecraft , the thruster assembly comprising at least one thruster ; and a communication device configured to receive data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft from a location remote from the spacecraft servicing pod and, based on the received data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft received by the communication device , the spacecraft servicing pod is configured to control the thruster assembly to alter the at least one of an orbit, a velocity, or a momentum of the target spacecraft while the spacecraft servicing pod is coupled to the target spacecraft . a body configured to be detached and depleted from a host spacecraft at a location adjacent a target spacecraft , the host spacecraft housing a plurality of spacecraft servicing pods ; at least one spacecraft servicing component configured to perform at least one servicing operation on the target spacecraft while being coupled to the target spacecraft , wherein the at least one spacecraft servicing component comprises a thruster assembly configured to alter at least one of an orbit, a velocity, or a momentum of the target spacecraft when coupled to the target spacecraft , the thruster assembly comprising at least one thruster ; and a communication device configured to receive data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft from a location remote from the spacecraft servicing pod and, based on the received data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft received by the communication device , the spacecraft servicing pod is configured to control the thruster assembly to alter the at least one of an orbit, a velocity, or a momentum of the target spacecraft while the spacecraft servicing pod is coupled to the target spacecraft .
A monitoring system for use with a mobile platform being operated by an operator, the system comprising: a database for containing operational information and procedures relating to the operation of the mobile platform by the operator; and a processor in communication with the database and with at least one subsystem of the mobile platform for monitoring operational information concerning operation of the mobile platform , including monitoring if the operator fails to perform a periodic check that is required by standard operating procedures at predetermined intervals, against stored information contained in said database , and determining if the operation of the mobile platform is proceeding in accordance with an expected performance by determining if the operator fails to perform the periodic check, wherein said processor generates an alert if said operation of said mobile platform deviates from said expected performance, wherein said mobile platform is an aircraft, wherein said operator is a pilot in command of said aircraft. a database for containing operational information and procedures relating to the operation of the mobile platform by the operator; and a processor in communication with the database and with at least one subsystem of the mobile platform for monitoring operational information concerning operation of the mobile platform , including monitoring if the operator fails to perform a periodic check that is required by standard operating procedures at predetermined intervals, against stored information contained in said database , and determining if the operation of the mobile platform is proceeding in accordance with an expected performance by determining if the operator fails to perform the periodic check, wherein said processor generates an alert if said operation of said mobile platform deviates from said expected performance, wherein said mobile platform is an aircraft, wherein said operator is a pilot in command of said aircraft.
A method for predicting a life consumption of a component in a machine, said method comprising: receiving load data from a load session of said machine, wherein a mesh is applied to a geometric model of said component, said mesh comprising a plurality of nodes, wherein selected nodes of the plurality of nodes, which are considered to have critical life consumption, form critical points, accessing a plurality of parameter sets, each associated with a critical point of said component, and for each critical point, calculating life consumption using one of a plurality of life consumption calculation models receiving said load data and said parameter sets as input, wherein a life consumption calculation model is selected based on the parameter set associated with the respective critical point. receiving load data from a load session of said machine, wherein a mesh is applied to a geometric model of said component, said mesh comprising a plurality of nodes, wherein selected nodes of the plurality of nodes, which are considered to have critical life consumption, form critical points, accessing a plurality of parameter sets, each associated with a critical point of said component, and for each critical point, calculating life consumption using one of a plurality of life consumption calculation models receiving said load data and said parameter sets as input, wherein a life consumption calculation model is selected based on the parameter set associated with the respective critical point.
A replaceable toner cartridge for an imaging apparatus including a developing device having an image carrier , the replaceable toner cartridge comprising: a housing to accommodate toner; an outlet port formed in the housing to supply the toner to the developing device; and an inlet port formed in the housing and spaced apart from the outlet port, to receive a residual toner removed from the image carrier of the developing device, as a recycled toner; wherein: the housing includes a toner container including a closed end and an opening end opposite the closed end, and a cap member to cover the opening end of the toner container, the inlet port and the outlet port are formed in the cap member, the housing extends in a longitudinal direction (Y), characterized in that the inlet port and the outlet port of the cap member are offset from each other in the longitudinal direction, when the cap member is coupled to the housing, and the toner cartridge comprises a conveying member that is located between the inlet port and the outlet port in the longitudinal direction to mix the recycled toner received from the developing device with the toner in the housing. a housing to accommodate toner; an outlet port formed in the housing to supply the toner to the developing device; and an inlet port formed in the housing and spaced apart from the outlet port, to receive a residual toner removed from the image carrier of the developing device, as a recycled toner; wherein: the housing includes a toner container including a closed end and an opening end opposite the closed end, and a cap member to cover the opening end of the toner container, the inlet port and the outlet port are formed in the cap member, the housing extends in a longitudinal direction (Y), characterized in that the inlet port and the outlet port of the cap member are offset from each other in the longitudinal direction, when the cap member is coupled to the housing, and the toner cartridge comprises a conveying member that is located between the inlet port and the outlet port in the longitudinal direction to mix the recycled toner received from the developing device with the toner in the housing. the housing includes a toner container including a closed end and an opening end opposite the closed end, and a cap member to cover the opening end of the toner container, the inlet port and the outlet port are formed in the cap member, the housing extends in a longitudinal direction (Y), characterized in that the inlet port and the outlet port of the cap member are offset from each other in the longitudinal direction, when the cap member is coupled to the housing, and the toner cartridge comprises a conveying member that is located between the inlet port and the outlet port in the longitudinal direction to mix the recycled toner received from the developing device with the toner in the housing.
A method, comprising: generating an HRTF calculation system taking anthropometric measurements and, optionally, demographic data of a user as input and returning a personalized HRTF for the user as output, obtaining 3D scans of a plurality of training subjects, generating HRTFs for the plurality of training subjects by performing acoustic scattering calculations on anatomical characteristics captured in the 3D scans, collecting anthropometric measurements and, optionally, demographic data of the plurality of training subjects, and training the HRTF calculation system to transform the anthropometric measurements and, optionally, demographic data of the plurality of training subjects to the HRTFs. generating an HRTF calculation system taking anthropometric measurements and, optionally, demographic data of a user as input and returning a personalized HRTF for the user as output, obtaining 3D scans of a plurality of training subjects, generating HRTFs for the plurality of training subjects by performing acoustic scattering calculations on anatomical characteristics captured in the 3D scans, collecting anthropometric measurements and, optionally, demographic data of the plurality of training subjects, and training the HRTF calculation system to transform the anthropometric measurements and, optionally, demographic data of the plurality of training subjects to the HRTFs.
An atomization core , comprising: a liquid absorbing element , comprising an atomization surface and a liquid absorbing surface that are oppositely arranged, wherein the liquid absorbing element is configured for an atomizing liquid to enter from the side of the liquid absorbing surface and permeate toward the side of the atomization surface ; and a heating module , comprising a heating element configured to heat the atomizing liquid and connectors connected to the two ends of the heating element , wherein the heating element comprises a first heating portion and a second heating portion connected in series to the first heating portion ; wherein the first heating portion is arranged on the atomization surface , and the second heating portion is embedded in the liquid absorbing element , is extended toward the side of the liquid absorbing surface , and is located between the atomization surface and the liquid absorbing surface ; it is characterized in that the number of the first heating portions is at least two, the two first heating portions are respectively connected to one of the connectors, and the second heating portion is connected in series between the two first heating portions . a liquid absorbing element , comprising an atomization surface and a liquid absorbing surface that are oppositely arranged, wherein the liquid absorbing element is configured for an atomizing liquid to enter from the side of the liquid absorbing surface and permeate toward the side of the atomization surface ; and a heating module , comprising a heating element configured to heat the atomizing liquid and connectors connected to the two ends of the heating element , wherein the heating element comprises a first heating portion and a second heating portion connected in series to the first heating portion ; wherein the first heating portion is arranged on the atomization surface , and the second heating portion is embedded in the liquid absorbing element , is extended toward the side of the liquid absorbing surface , and is located between the atomization surface and the liquid absorbing surface ; it is characterized in that the number of the first heating portions is at least two, the two first heating portions are respectively connected to one of the connectors, and the second heating portion is connected in series between the two first heating portions .
Tibial trial insert system , comprising: a bearing component having a superior articulating surface and an inferior surface ; a plate component having a superior surface and an inferior fixation surface ; a spacing adjustment assembly configured to be arrangeable between the inferior surface of the bearing component and the superior surface of the plate component , the spacing adjustment assembly having at least one superior connector element configured to removably engage with the bearing component , at least one inferior base element configured to removably engage with the plate component , and having a coupling arrangement movably coupling the connector element with the base element in proximal/distal direction and to a limited extent; a plurality of shims , each shim configured to be slidable between an inferior surface of the connector element and a superior surface of the base element to adjust a proximal/distal height of the spacing adjustment assembly , in order to thereby adjust a relative proximal/distal spacing between the bearing component and the plate component . a bearing component having a superior articulating surface and an inferior surface ; a plate component having a superior surface and an inferior fixation surface ; a spacing adjustment assembly configured to be arrangeable between the inferior surface of the bearing component and the superior surface of the plate component , the spacing adjustment assembly having at least one superior connector element configured to removably engage with the bearing component , at least one inferior base element configured to removably engage with the plate component , and having a coupling arrangement movably coupling the connector element with the base element in proximal/distal direction and to a limited extent; a plurality of shims , each shim configured to be slidable between an inferior surface of the connector element and a superior surface of the base element to adjust a proximal/distal height of the spacing adjustment assembly , in order to thereby adjust a relative proximal/distal spacing between the bearing component and the plate component .
Rail vehicle for transporting vehicles , in particular motor vehicles, wherein the rail vehicle is of least double-storey design and has a lower storey and an upper storey , and wherein each storey has a loading plane for parking vehicles , wherein the loading plane of the lower storey is formed from a plurality of elements which are designed to be at least partially adjustable for loading or unloading the vehicles on the one hand and for transporting the vehicles on the other hand, characterized in that the elements (19..22) are designed to be adjustable independent of one another, wherein one or more elements of the loading plane of the lower storey are designed to be only height-adjustable in the vertical direction and not pivotable between axles of the rail vehicle , and wherein one or more elements of the loading plane of the lower storey are designed to be height-adjustable in the vertical direction and pivotable between the axles and a head section of the rail vehicle .
A method for supplying electrical power to an electrical supply grid from at least one wind power installation , wherein - the supply is controlled such that changes in the supplied power (P) are limited, and - the limiting prescribed is at least one limit gradient (dP p , dP n ) that stipulates the magnitude of the maximum change, characterized in that - the at least one limit gradient is set on the basis of a property and/or an instantaneous state of the supply grid during ongoing operation. - the supply is controlled such that changes in the supplied power (P) are limited, and - the limiting prescribed is at least one limit gradient (dP p , dP n ) that stipulates the magnitude of the maximum change, characterized in that - the at least one limit gradient is set on the basis of a property and/or an instantaneous state of the supply grid during ongoing operation.
A fusion protein comprising a PD-1 polypeptide which is operably linked via its C-terminus to the N-terminus of an intracellular domain of a CD28 polypeptide, wherein the PD-1 polypeptide comprises the extracellular domain and the transmembrane domain of PD-1 and comprises the sequence of SEQ ID NO: 16 or a sequence which has 1 to 10 substitutions, deletions or insertions in comparison to SEQ ID NO: 16, which is characterized by having a PD-L1 and/or PD-L2 binding activity.