mhurhangee/ep-ind-claims huggingface dataset:
A transistor device comprising a CMOS circuit, including: a p-type channel doped substantially transparent delafossite material, wherein the material is doped to give a carrier concentration of less than about 10 17 cm -3, the material of the channel having an ionization potential; a first source contact interfaced to said p-type channel; a first drain contact interfaced to said p-type channel; a n-type channel; a second source contact interfaced to said n-type channel; a second drain contact interfaced to said n-type channel; and a gate dielectric between a first and a second gate contacts, the p-type channel, and the n-type channel, wherein: the first gate contact is formed upon a substrate, said gate dielectric is formed upon said gate contacts, and said channel is formed upon said gate dielectric; the gate, source and drain contacts (16, 12, 14) are patterned to form a circuit interconnect pattern; and the source-to-channel and drain-to-channel contacts having a work function that is nearly equal to or greater than the ionization potential of the channel material, wherein the first contacts (12,14,16) form the p-type thin film transistor; and wherein the second contacts form a n-type transparent channel transistor connected through the circuit pattern to form the CMOS circuit. a p-type channel doped substantially transparent delafossite material, wherein the material is doped to give a carrier concentration of less than about 10 17 cm -3, the material of the channel having an ionization potential; a first source contact interfaced to said p-type channel; a first drain contact interfaced to said p-type channel; a n-type channel; a second source contact interfaced to said n-type channel; a second drain contact interfaced to said n-type channel; and a gate dielectric between a first and a second gate contacts, the p-type channel, and the n-type channel, wherein: the first gate contact is formed upon a substrate, said gate dielectric is formed upon said gate contacts, and said channel is formed upon said gate dielectric; the gate, source and drain contacts (16, 12, 14) are patterned to form a circuit interconnect pattern; and the source-to-channel and drain-to-channel contacts having a work function that is nearly equal to or greater than the ionization potential of the channel material, wherein the first contacts (12,14,16) form the p-type thin film transistor; and the first gate contact is formed upon a substrate, said gate dielectric is formed upon said gate contacts, and said channel is formed upon said gate dielectric; the gate, source and drain contacts (16, 12, 14) are patterned to form a circuit interconnect pattern; and the source-to-channel and drain-to-channel contacts having a work function that is nearly equal to or greater than the ionization potential of the channel material, wherein the first contacts (12,14,16) form the p-type thin film transistor; and wherein the second contacts form a n-type transparent channel transistor connected through the circuit pattern to form the CMOS circuit.
An implant comprising: an intramedullary body, insertable into a medullary cavity of a bone, wherein the body is a solid body having a tapered section with at least one outer contact face on the tapered section; and a space truss coupled to the at least one outer contact face of the tapered section, wherein, during use, the space truss is configured to be at least partially disposed inside the medullary cavity, between the intramedullary body of the implant and the medullary cavity, wherein the space truss comprises two or more planar truss units having a plurality of struts joined at nodes; and wherein a diameter and/or length of the struts and/or density of the space truss are predetermined such that when the space truss is in contact with the bone at least a portion of strain on the intramedullary body is distributed through the space truss to the bone. an intramedullary body, insertable into a medullary cavity of a bone, wherein the body is a solid body having a tapered section with at least one outer contact face on the tapered section; and a space truss coupled to the at least one outer contact face of the tapered section, wherein, during use, the space truss is configured to be at least partially disposed inside the medullary cavity, between the intramedullary body of the implant and the medullary cavity, wherein the space truss comprises two or more planar truss units having a plurality of struts joined at nodes; and wherein a diameter and/or length of the struts and/or density of the space truss are predetermined such that when the space truss is in contact with the bone at least a portion of strain on the intramedullary body is distributed through the space truss to the bone.
Method for in-line production of milk of lime into an in-line production process of PCC arranged in connection with a fibrous web machine, according to which method quick lime is comminuted in a comminuting apparatus which forms the first part of a slaking apparatus and into which a part of the water required in the slaking is fed, the slurry of comminuted quick lime and water is taken to the second part of the slaking apparatus, into which the rest of the water required for the slaking is brought and in which quick lime is slaked into milk of lime at a temperature of at least 80 degrees, after which the milk of lime produced is cleaned by separating from it over-sized particles and agglomerates characterized in that • quick lime is slaked in a pump (34; 52; 70) or in its pressure pipe forming the second part of the slaking apparatus so that the retention time of the quick lime in the pump (34; 52; 70) or its pressure pipe essentially corresponds the time required for the slaking of the quick lime, • the milk of lime produced is fed from the pump (34, 52, 70) or its pressure pipe to cleaning (58,60), • excessively large calcium hydroxide particles are removed immediately prior to introducing the milk of lime to the in-line production process of PCC, and • the milk of lime is introduced into the in-line production process of PCC located in the production line of the end or intermediate product of a fibrous web machine. • quick lime is slaked in a pump (34; 52; 70) or in its pressure pipe forming the second part of the slaking apparatus so that the retention time of the quick lime in the pump (34; 52; 70) or its pressure pipe essentially corresponds the time required for the slaking of the quick lime, • the milk of lime produced is fed from the pump (34, 52, 70) or its pressure pipe to cleaning (58,60), • excessively large calcium hydroxide particles are removed immediately prior to introducing the milk of lime to the in-line production process of PCC, and • the milk of lime is introduced into the in-line production process of PCC located in the production line of the end or intermediate product of a fibrous web machine.
A process for producing microparticles comprising (a) forming an emulsion comprising a first phase comprising an agent, a polymer, and a first solvent for the polymer, in a continuous process medium; and (b) directly contacting the emulsion with an extraction phase and mixing the extraction phase with all or substantially all of the emulsion to extract the first solvent from the first phase into the extraction phase to form the microparticles; wherein the extraction takes place directly in the emulsion-extraction phase holding tank with the emulsion being intimately contacted and mixed with the extraction phase, and wherein the extraction does not take place by removing the continuous phase from the emulsion into a separate unit operation to where solvent is extracted out of the continuous phase; wherein a portion of the extraction phase is continuously removed and make up extraction phase fluid is added back into the extraction phase; wherein the extraction ratio increases over time during step (b). (a) forming an emulsion comprising a first phase comprising an agent, a polymer, and a first solvent for the polymer, in a continuous process medium; and (b) directly contacting the emulsion with an extraction phase and mixing the extraction phase with all or substantially all of the emulsion to extract the first solvent from the first phase into the extraction phase to form the microparticles; wherein the extraction takes place directly in the emulsion-extraction phase holding tank with the emulsion being intimately contacted and mixed with the extraction phase, and wherein the extraction does not take place by removing the continuous phase from the emulsion into a separate unit operation to where solvent is extracted out of the continuous phase;
A movable rail for a covering for an architectural opening, the movable rail comprising: a rail member having a length and defining a retention channel formed along said length of said rail member; and a first magnet assembly positioned at least partially within said retention channel and selectively positionable along said length of said rail member, said first magnet assembly including a releasable lock mechanism actuatable to secure said first magnet assembly in a desired position. a rail member having a length and defining a retention channel formed along said length of said rail member; and a first magnet assembly positioned at least partially within said retention channel and selectively positionable along said length of said rail member, said first magnet assembly including a releasable lock mechanism actuatable to secure said first magnet assembly in a desired position.
A method comprising: receiving mapping data collected by an autonomous cleaning robot as the autonomous cleaning robot moves about an environment, a portion of the mapping data indicative of a location of an object in the environment; and defining a behavioral control zone (20; 20a-d; 480a-f) at the location of the object such that the autonomous cleaning robot initiates a behavior constrained to the behavioral control zone in response to encountering the behavioral control zone in the environment, characterized in that defining the behavioral control zone includes using sensor data collected by the autonomous cleaning robot to provide a recommended behavior control zone to a user, and receiving from the user acceptance or a modification of the recommended behavior control zone to define a behavior control zone for controlling the behavior of the autonomous cleaning robot. receiving mapping data collected by an autonomous cleaning robot as the autonomous cleaning robot moves about an environment, a portion of the mapping data indicative of a location of an object in the environment; and defining a behavioral control zone (20; 20a-d; 480a-f) at the location of the object such that the autonomous cleaning robot initiates a behavior constrained to the behavioral control zone in response to encountering the behavioral control zone in the environment, characterized in that defining the behavioral control zone includes using sensor data collected by the autonomous cleaning robot to provide a recommended behavior control zone to a user, and receiving from the user acceptance or a modification of the recommended behavior control zone to define a behavior control zone for controlling the behavior of the autonomous cleaning robot.
A method of producing an austenitic steel sheet excellent in resistance to delayed cracking, comprising - casting an ingot, or a continuously cast slab, or a continuously cast thin slab or a strip-cast strip, the composition thereof comprising, in weight: - 0.50% - 0.80 %C - 10 - 17% Mn - 1.0 - 5% Al - at most 0.5% Si - at most 0.020% S - at most 0.050% P - 50 - 200 ppm N - 0.050 - 0.25 % V the remainder being iron and unavoidable impurities inherent to fabrication; - providing a hot-rolled strip by hot rolling the ingot, the continuously cast slab, the continuously cast thin slab or the strip-cast strip to the desired hot rolled thickness. - cold-rolling the hot-rolled strip to the desired final thickness, - continuous annealing of the cold-rolled strip in a process comprising heating up the strip at a heating rate V h of between 3 and 60°C/s to an annealing temperature T a for an annealing time t a of between 15 and 300 seconds followed by cooling at a cooling rate V c of between 10 and 100°C/s and wherein T a is from 750 to 850°C. - casting an ingot, or a continuously cast slab, or a continuously cast thin slab or a strip-cast strip, the composition thereof comprising, in weight: - 0.50% - 0.80 %C - 10 - 17% Mn - 1.0 - 5% Al - at most 0.5% Si - at most 0.020% S - at most 0.050% P - 50 - 200 ppm N - 0.050 - 0.25 % V the remainder being iron and unavoidable impurities inherent to fabrication; - 0.50% - 0.80 %C - 10 - 17% Mn - 1.0 - 5% Al - at most 0.5% Si - at most 0.020% S - at most 0.050% P - 50 - 200 ppm N - 0.050 - 0.25 % V - providing a hot-rolled strip by hot rolling the ingot, the continuously cast slab, the continuously cast thin slab or the strip-cast strip to the desired hot rolled thickness. - cold-rolling the hot-rolled strip to the desired final thickness, - continuous annealing of the cold-rolled strip in a process comprising heating up the strip at a heating rate V h of between 3 and 60°C/s to an annealing temperature T a for an annealing time t a of between 15 and 300 seconds followed by cooling at a cooling rate V c of between 10 and 100°C/s and wherein T a is from 750 to 850°C.
A bundle heat exchanger for the supply or discharge of heat and simultaneous mixing of a product flow, comprising a bundle of at least two elongated heat exchange elements such as tubes, electric heating rods or heating coils, wherein a product flow flows in the exterior space from an inlet opening to an outlet opening, comprising at least two fixed assemblies (built-in elements A, B) with at least one deflection surface (8, 8', 8a', 8a"; 8b'; 8c', 8c"; 8d'; 8e', 8e"), wherein at least two windows (12, 13, 12', 13', 12a'; 12b', 12b"; 12c'; 12d', 12d"; 12e', 25, 26, 27, 25', 26', 27') are provided in the deflection surface (8, 8', 8a', 8a"; 8b'; 8c', 8c"; 8d'; 8e', 8e") that lead from the inlet side thereof to the outlet side, and wherein on the inlet side and on the outlet side of the deflection surface (8, 8', 8a', 8a"; 8b'; 8e', 8e"; 8d'; 8e', 8e") at least one directing section (10, 11, 10', 10a - 10e, 10a' - 10e', 10a" - 10e", 23, 24) is attached in parallel to the elongated heat exchange elements, and wherein the partial surfaces of the deflection surface (8, 8', 8a', 8a"; 8b'; 8c', 8c"; 8d'; 8e', 8e") that are not provided with windows (12, 13, 12', 13', 12a'; 12b', 12b"; 12c'; 12d', 12d"; 12e', 25, 26, 27, 25', 26', 27') have one or more bores or openings for the passage of the heat exchange elements corresponding to their partition in the bundle of heat exchange elements, characterized in that the directing sections on the inlet side and the directing sections on the outlet side intersect each other at an angle of 90°. wherein at least two windows (12, 13, 12', 13', 12a'; 12b', 12b"; 12c'; 12d', 12d"; 12e', 25, 26, 27, 25', 26', 27') are provided in the deflection surface (8, 8', 8a', 8a"; 8b'; 8c', 8c"; 8d'; 8e', 8e") that lead from the inlet side thereof to the outlet side, and wherein on the inlet side and on the outlet side of the deflection surface (8, 8', 8a', 8a"; 8b'; 8e', 8e"; 8d'; 8e', 8e") at least one directing section (10, 11, 10', 10a - 10e, 10a' - 10e', 10a" - 10e", 23, 24) is attached in parallel to the elongated heat exchange elements, and wherein the partial surfaces of the deflection surface (8, 8', 8a', 8a"; 8b'; 8c', 8c"; 8d'; 8e', 8e") that are not provided with windows (12, 13, 12', 13', 12a'; 12b', 12b"; 12c'; 12d', 12d"; 12e', 25, 26, 27, 25', 26', 27') have one or more bores or openings for the passage of the heat exchange elements corresponding to their partition in the bundle of heat exchange elements, characterized in that the directing sections on the inlet side and the directing sections on the outlet side intersect each other at an angle of 90°.
A method comprising: receiving, by a wireless device, at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of cell groups, wherein the plurality of cells comprises: a plurality of downlink-uplink cells, wherein each of the plurality of downlink-uplink cells has a configured uplink and a configured downlink; and at least one downlink-only cell, wherein each of the at least one downlink-only cell has a configured downlink with no configured uplink; receiving at least one timing advance command comprising: a time adjustment value; and an index of a first cell group in the plurality of cell groups; and applying the timing advance command to uplink transmission timing of at least one downlink-uplink cell in the first cell group, wherein: each cell group in the plurality of cell groups comprises one or more of the plurality of downlink-uplink cells; and each of the at least one downlink-only cell is assigned to a cell group comprising at least one of the plurality of downlink-uplink cells in the same frequency band as the downlink only cell. receiving, by a wireless device, at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of cell groups, wherein the plurality of cells comprises: a plurality of downlink-uplink cells, wherein each of the plurality of downlink-uplink cells has a configured uplink and a configured downlink; and at least one downlink-only cell, wherein each of the at least one downlink-only cell has a configured downlink with no configured uplink; a plurality of downlink-uplink cells, wherein each of the plurality of downlink-uplink cells has a configured uplink and a configured downlink; and at least one downlink-only cell, wherein each of the at least one downlink-only cell has a configured downlink with no configured uplink; receiving at least one timing advance command comprising: a time adjustment value; and an index of a first cell group in the plurality of cell groups; and a time adjustment value; and an index of a first cell group in the plurality of cell groups; and applying the timing advance command to uplink transmission timing of at least one downlink-uplink cell in the first cell group, wherein: each cell group in the plurality of cell groups comprises one or more of the plurality of downlink-uplink cells; and each of the at least one downlink-only cell is assigned to a cell group comprising at least one of the plurality of downlink-uplink cells in the same frequency band as the downlink only cell. each cell group in the plurality of cell groups comprises one or more of the plurality of downlink-uplink cells; and each of the at least one downlink-only cell is assigned to a cell group comprising at least one of the plurality of downlink-uplink cells in the same frequency band as the downlink only cell.
A paging processing method, comprising: receiving, by a user equipment, a paging message from a mobility management entity, MME; in response to the paging message, sending, by the user equipment, a tracking area update, TAU, message to the MME when a mobility management back-off timer of the user equipment is under a running state and the value of a temporary identity used in next update, TIN, of the user equipment is a packet temporary mobile subscriber identity, P-TMSI; and receiving, by the MME, the TAU message, and acquiring a bearer context of the user equipment from a serving general packet radio service support node, SGSN. receiving, by a user equipment, a paging message from a mobility management entity, MME; in response to the paging message, sending, by the user equipment, a tracking area update, TAU, message to the MME when a mobility management back-off timer of the user equipment is under a running state and the value of a temporary identity used in next update, TIN, of the user equipment is a packet temporary mobile subscriber identity, P-TMSI; and receiving, by the MME, the TAU message, and acquiring a bearer context of the user equipment from a serving general packet radio service support node, SGSN.
Protective cover for a vehicle seat with a front sheet and a rear sheet formed with a plastic film where a) the front sheet comprises a fleece, web or fabric, b) the fleece, web or fabric is welded or bonded to a plastic film, c) the rear sheet is elastic, d) the rear sheet comprises an opening by which it is possible to gain excess to an upper pocket formed between the front sheet and the rear sheet which can be pulled over the seat back of a vehicle seat and to a lower pocket between the front sheet and the rear sheet which can be pulled over a seat cushion of the vehicle seat, e) due to the opening the upper pocket comprises a first free edge and the lower pocket comprises a second free edge, f) the two edges (18, 19) of the rear sheet are connected to each other by connecting bands which are part of the rear sheet and g) the connecting bands reach, span around or engage behind the vehicle seat in the transitional region between the seat cushion and the seat back. a) the front sheet comprises a fleece, web or fabric, b) the fleece, web or fabric is welded or bonded to a plastic film, c) the rear sheet is elastic, d) the rear sheet comprises an opening by which it is possible to gain excess to an upper pocket formed between the front sheet and the rear sheet which can be pulled over the seat back of a vehicle seat and to a lower pocket between the front sheet and the rear sheet which can be pulled over a seat cushion of the vehicle seat, e) due to the opening the upper pocket comprises a first free edge and the lower pocket comprises a second free edge, f) the two edges (18, 19) of the rear sheet are connected to each other by connecting bands which are part of the rear sheet and g) the connecting bands reach, span around or engage behind the vehicle seat in the transitional region between the seat cushion and the seat back.
A method for upgrading a pyrolysis oil stream and a hydrocarbon stream, the method comprising the steps of: separately introducing the pyrolysis oil stream and the hydrocarbon stream into a reaction zone to form a mixture of the pyrolysis oil stream and the hydrocarbon stream in the reaction zone; catalytically cracking the mixture of the pyrolysis oil stream and the hydrocarbon stream in the presence of a particulate cracking catalyst in the reaction zone; providing the hydrocarbon stream at a temperature of from 100 to 425°C; and maintaining the pyrolysis oil stream at a temperature of less than or equal to 100 °C substantially up to introduction into the reaction zone; wherein maintaining the pyrolysis oil stream at the temperature of less than or equal to 100 °C comprises actively cooling the pyrolysis oil stream. separately introducing the pyrolysis oil stream and the hydrocarbon stream into a reaction zone to form a mixture of the pyrolysis oil stream and the hydrocarbon stream in the reaction zone; catalytically cracking the mixture of the pyrolysis oil stream and the hydrocarbon stream in the presence of a particulate cracking catalyst in the reaction zone; providing the hydrocarbon stream at a temperature of from 100 to 425°C; and maintaining the pyrolysis oil stream at a temperature of less than or equal to 100 °C substantially up to introduction into the reaction zone; wherein maintaining the pyrolysis oil stream at the temperature of less than or equal to 100 °C comprises actively cooling the pyrolysis oil stream.