mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a cable comprising: in a high pressure process (a) compressing ethylene and optionally one or more monomer(s) under pressure in a compressor, wherein a mineral oil compressor lubricant is used for lubrication, (b) polymerising ethylene optionally together with one or more comonomer(s) in a polymerisation zone to obtain a low density polyethylene (LDPE) selected from a LDPE homopolymer or LDPE copolymer of ethylene with one or more comonomer(s), which LDPE homopolymer or LDPE copolymer of ethylene may optionally be unsaturated, (c) separating the obtained LDPE, from the unreacted products and recovering the separated LDPE in a recovery zone; applying on a conductor at least a semiconductive layer comprising a semiconductive composition comprising carbon black and an insulation layer comprising a polymer composition comprising said LDPE, in any order; characterized in that the polymer composition of the insulation layer has an electrical conductivity of 150 fS/m or less, when measured at 70°C and 30 kV/mm mean electric field from a non-degassed, 1 mm thick plaque sample consisting of a crosslinked polymer composition according to DC conductivity method. in a high pressure process (a) compressing ethylene and optionally one or more monomer(s) under pressure in a compressor, wherein a mineral oil compressor lubricant is used for lubrication, (b) polymerising ethylene optionally together with one or more comonomer(s) in a polymerisation zone to obtain a low density polyethylene (LDPE) selected from a LDPE homopolymer or LDPE copolymer of ethylene with one or more comonomer(s), which LDPE homopolymer or LDPE copolymer of ethylene may optionally be unsaturated, (c) separating the obtained LDPE, from the unreacted products and recovering the separated LDPE in a recovery zone; (a) compressing ethylene and optionally one or more monomer(s) under pressure in a compressor, wherein a mineral oil compressor lubricant is used for lubrication, (b) polymerising ethylene optionally together with one or more comonomer(s) in a polymerisation zone to obtain a low density polyethylene (LDPE) selected from a LDPE homopolymer or LDPE copolymer of ethylene with one or more comonomer(s), which LDPE homopolymer or LDPE copolymer of ethylene may optionally be unsaturated, (c) separating the obtained LDPE, from the unreacted products and recovering the separated LDPE in a recovery zone; applying on a conductor at least a semiconductive layer comprising a semiconductive composition comprising carbon black and an insulation layer comprising a polymer composition comprising said LDPE, in any order;
A process for the production of a frozen ready-made polenta in the form of granules or flakes, said granules or flakes being able to be thawed and/or heated rapidly and uniformly to produce a soft polenta having the texture and organoleptic characteristics of a freshly cooked traditional polenta and a dynamic viscosity of 13.000 - 17.000 Pa.s, preferably about 15.000 (Pa.s), at about 85°C, measured with a rotational coaxial-cylinder rheometer, wherein said process comprises the steps of: a) providing a traditional soft polenta at a temperature of about 40°C or higher; b) dividing said polenta into a plurality of semifinished products in the form of granules or flakes; c) performing a first step of deep-freezing said semifinished products by supplying them in dosed amounts into a bath of a liquid at a temperature equal at -30°C or lower and keeping them in said bath for a predetermined first time interval, thus obtaining a plurality of partially deep-frozen granules or flakes of said polenta, said partially deep-frozen granules or flakes having a hard and deep-frozen external surface and a soft not completely deep-frozen core; d) subjecting for a predetermined second time interval said plurality of partially deep-frozen granules or flakes of polenta to a second deep-freezing step at a temperature comprised between -90°C and -30°C, preferably between -70°C and - 50°C, thus obtaining a plurality of deep-frozen granules or flakes of polenta. a) providing a traditional soft polenta at a temperature of about 40°C or higher; b) dividing said polenta into a plurality of semifinished products in the form of granules or flakes; c) performing a first step of deep-freezing said semifinished products by supplying them in dosed amounts into a bath of a liquid at a temperature equal at -30°C or lower and keeping them in said bath for a predetermined first time interval, thus obtaining a plurality of partially deep-frozen granules or flakes of said polenta, said partially deep-frozen granules or flakes having a hard and deep-frozen external surface and a soft not completely deep-frozen core; d) subjecting for a predetermined second time interval said plurality of partially deep-frozen granules or flakes of polenta to a second deep-freezing step at a temperature comprised between -90°C and -30°C, preferably between -70°C and - 50°C, thus obtaining a plurality of deep-frozen granules or flakes of polenta.
Control system with a control valve, wherein the control system is preferably provided to control the speed or position of fluid consumers such as hydraulic motors or servomotors, which need to be controlled from the fluid supply side by adjusting a throttle cross-section of the control valve, preferably in the form of a throttle valve, independent of load, comprising - at least one the electronic pressure compensator and - at least one load pressure feedback, wherein the electronic pressure compensator records the pressure, viewed in the fluid flow direction, before (p 0) and after (p L) the control valve and adjusts the throttle cross-section by incorporating a flow characteristic curve determination (Q Ventil, soll) using a fluid resistance such that an approximately constant volume flow rate always flows through said throttle cross-section, wherein the load pressure feedback is used to actively absorb vibrations by filtering the pressure on the load side with its vibration frequency band, characterised in that the vibration frequency band is high-pass filtered in such a way that only the high filtered frequencies influence adjustment of the control valve and the low frequencies pass through a dead time or delay block with PT1 behaviour, said frequencies being subtracted from the actual load pressure signal at a summation point; and in that the control output from the load pressure feedback is subtracted from the control signal for the electronic pressure compensator forming the valve opening signal Y soll for the control valve. - at least one the electronic pressure compensator and - at least one load pressure feedback, wherein the electronic pressure compensator records the pressure, viewed in the fluid flow direction, before (p 0) and after (p L) the control valve and adjusts the throttle cross-section by incorporating a flow characteristic curve determination (Q Ventil, soll) using a fluid resistance such that an approximately constant volume flow rate always flows through said throttle cross-section, wherein the load pressure feedback is used to actively absorb vibrations by filtering the pressure on the load side with its vibration frequency band, characterised in that the vibration frequency band is high-pass filtered in such a way that only the high filtered frequencies influence adjustment of the control valve and the low frequencies pass through a dead time or delay block with PT1 behaviour, said frequencies being subtracted from the actual load pressure signal at a summation point; and in that the control output from the load pressure feedback is subtracted from the control signal for the electronic pressure compensator forming the valve opening signal Y soll for the control valve.
Teach-in device for a robot cleaner, wherein the teach-in device comprises: - a housing, - a signalling facility, which is arranged in the housing and configured to emit predetermined data signals, which can be received by a receiving facility of a robot cleaner, - a control facility, which is arranged in the housing and configured to set the predetermined data signals of the signalling facility, and - comprises a floor sensor which is configured to activate or change a state of the signalling facility if the floor sensor makes contact with the floor, characterised in that - the teach-in device is provided to scan a peripheral line of at least one surface on the floor. - a housing, - a signalling facility, which is arranged in the housing and configured to emit predetermined data signals, which can be received by a receiving facility of a robot cleaner, - a control facility, which is arranged in the housing and configured to set the predetermined data signals of the signalling facility, and - comprises a floor sensor which is configured to activate or change a state of the signalling facility if the floor sensor makes contact with the floor, characterised in that - the teach-in device is provided to scan a peripheral line of at least one surface on the floor.
A pick-and-place machine for mounting electrical components to substrates, with a central control unit, a mounting base for purposes of mounting a pick-and-place head onto the pick-and-place machine, wherein the pick-and-place head has a holding device, mounted such that it can be moved, for purposes of holding the components, and a drive device for purposes of moving the holding device relative to a base body of the pick-and-place head, and a control device for purposes of controlling the drive device, wherein the control device is spatially separated from the central control unit and for purposes of enabling control by the central control unit is electrically connected with the central control unit, characterised in that, the control device for purposes of controlling the drive device is arranged directly on the mounting base.
A method comprising: determining a first repetition number by a user equipment, UE, in a wireless system; repeatedly transmitting a data block by the first repetition number; receiving a HARQ indicator in a HARQ indicator channel that indicates a negative acknowledgement for the data block; determining a second repetition number for a data retransmission of the data block, wherein the second repetition number is different from the first repetition number; and repeatedly retransmitting the data block by the second repetition number, characterized in that the HARQ indicator that indicates the negative acknowledgement is received over multiple subframes; and resources in the HARQ indicator channel not used to transmit HARQ information is reused for data transmission. determining a first repetition number by a user equipment, UE, in a wireless system; repeatedly transmitting a data block by the first repetition number; receiving a HARQ indicator in a HARQ indicator channel that indicates a negative acknowledgement for the data block; determining a second repetition number for a data retransmission of the data block, wherein the second repetition number is different from the first repetition number; and repeatedly retransmitting the data block by the second repetition number, characterized in that the HARQ indicator that indicates the negative acknowledgement is received over multiple subframes; and resources in the HARQ indicator channel not used to transmit HARQ information is reused for data transmission.
A method for manufacturing a lens, the method comprising: heating a lens material to a temperature above its glass transition temperature (T g) delivering the heated lens material to a material flow path having a lens material inlet and a lens material outlet fluidly coupled to a cavity of a mold, the cavity defining a lens; flowing the lens material through the material flow path into the cavity; dissipating heat from the lens material through a heat transfer insert that forms a part surface of the cavity, wherein the heat transfer insert comprises a conformal fluid conduit; and retrieving a solidified lens from the cavity after solidification of the lens material. heating a lens material to a temperature above its glass transition temperature (T g) delivering the heated lens material to a material flow path having a lens material inlet and a lens material outlet fluidly coupled to a cavity of a mold, the cavity defining a lens; flowing the lens material through the material flow path into the cavity; dissipating heat from the lens material through a heat transfer insert that forms a part surface of the cavity, wherein the heat transfer insert comprises a conformal fluid conduit; and retrieving a solidified lens from the cavity after solidification of the lens material.
Process for preparing a polyethylene product, said process comprising the steps of: (a) producing a first polyethylene resin in the presence of a metallocene catalyst in a reactor, said first polyethylene resin having a density of from 0.942 to 0.970 g/cm 3 and a High Load Melt Index (HLMI) of from 0.5 to 150 g/10min, with the HLMI being measured by the procedure of ASTM D-1238 using a temperature of 190°C and a load of 21.6 kg and with the density being determined with the ASTM D-1505 standardized test at a temperature of 23°C; (b) separately producing a second polyethylene resin in the presence of a chromium catalyst in a reactor, and (c) physically blending together said first and said second polyethylene resin to produce a polyethylene product, wherein the polyethylene product comprises at least 25% by weight of the first polyethylene resin. (a) producing a first polyethylene resin in the presence of a metallocene catalyst in a reactor, said first polyethylene resin having a density of from 0.942 to 0.970 g/cm 3 and a High Load Melt Index (HLMI) of from 0.5 to 150 g/10min, with the HLMI being measured by the procedure of ASTM D-1238 using a temperature of 190°C and a load of 21.6 kg and with the density being determined with the ASTM D-1505 standardized test at a temperature of 23°C; (b) separately producing a second polyethylene resin in the presence of a chromium catalyst in a reactor, and (c) physically blending together said first and said second polyethylene resin to produce a polyethylene product,
A nut locking assembly, comprising: a pin including an outer diameter threaded surface and a plurality of radially inward extending grooves formed between the outer diameter threaded surface and an end of the pin; a nut including an inner diameter threaded surface and a plurality of radially outward extending grooves formed between the inner diameter threaded surface and an axial end of the nut, wherein the plurality of radially outward extending grooves is formed in an inner circumferential surface of the nut; a lock ring including a plurality of outer diameter protrusions and a plurality of inner diameter protrusions; and a retaining ring located between the lock ring and the end of the pin, wherein the retaining ring is located in a retaining ring channel defined by an outer circumferential surface of the pin, and wherein the retaining ring channel includes a first axially oriented wall and a second axially oriented wall, the second axially oriented wall being oriented toward the first axially oriented wall, and wherein an axial thickness of the lock ring is greater than an axial length of the outer circumferential surface of the pin, the axial length of the outer circumferential surface being measured between the first axially oriented wall of the retaining ring channel and an axially oriented surface of the pin, and wherein the retaining ring applies a biasing force, in an axial direction, against the lock ring. a pin including an outer diameter threaded surface and a plurality of radially inward extending grooves formed between the outer diameter threaded surface and an end of the pin; a nut including an inner diameter threaded surface and a plurality of radially outward extending grooves formed between the inner diameter threaded surface and an axial end of the nut, wherein the plurality of radially outward extending grooves is formed in an inner circumferential surface of the nut; a lock ring including a plurality of outer diameter protrusions and a plurality of inner diameter protrusions; and a retaining ring located between the lock ring and the end of the pin, wherein the retaining ring is located in a retaining ring channel defined by an outer circumferential surface of the pin, and wherein the retaining ring channel includes a first axially oriented wall and a second axially oriented wall, the second axially oriented wall being oriented toward the first axially oriented wall, and wherein an axial thickness of the lock ring is greater than an axial length of the outer circumferential surface of the pin, the axial length of the outer circumferential surface being measured between the first axially oriented wall of the retaining ring channel and an axially oriented surface of the pin, and wherein the retaining ring applies a biasing force, in an axial direction, against the lock ring.
A method for reducing heavy metal emissions comprising: burning a heavy metal containing fuel in a combustion chamber; introducing molecular halogen or one or more halogen precursors into the combustion chamber or an exhaust stream produced as a result of the burning of the heavy metal containing fuel, wherein the halogen or halogen precursor is introduced into the combustion chamber or an exhaust stream having a temperature greater than about 538° C (1000° F); and introducing separately a sorbent material having a mean particle diameter of less than 15 μm into an exhaust stream resulting from burning of the heavy metal containing fuel in the combustion chamber; wherein the halogen and sorbent material are introduced at a ratio of from about 1.54 to about 12.57 moles of halogen per kilogram (about 0.7 to about 5.7 moles of halogen per pound (lb)) of sorbent material. burning a heavy metal containing fuel in a combustion chamber; introducing molecular halogen or one or more halogen precursors into the combustion chamber or an exhaust stream produced as a result of the burning of the heavy metal containing fuel, wherein the halogen or halogen precursor is introduced into the combustion chamber or an exhaust stream having a temperature greater than about 538° C (1000° F); and introducing separately a sorbent material having a mean particle diameter of less than 15 μm into an exhaust stream resulting from burning of the heavy metal containing fuel in the combustion chamber; wherein the halogen and sorbent material are introduced at a ratio of from about 1.54 to about 12.57 moles of halogen per kilogram (about 0.7 to about 5.7 moles of halogen per pound (lb)) of sorbent material.
A composition for use in the treatment of an inflammatory condition comprising: an isolated or recombinant soluble WSX-1/IL-27 complex, wherein the inflammatory condition is selected from: an immune disorder, an infection, cancer, an allergy, arthritis, asthma, inflammatory bowel disease, Crohn's disease, uveitis, psoriasis, lupus, multiple sclerosis, a chronic infectious disease, tuberculosis, ankalyzing spondalitis, transplant rejection, sarcoidosis and hepatitis. an immune disorder, an infection, cancer, an allergy, arthritis, asthma, inflammatory bowel disease, Crohn's disease, uveitis, psoriasis, lupus, multiple sclerosis, a chronic infectious disease, tuberculosis, ankalyzing spondalitis, transplant rejection, sarcoidosis and hepatitis.
A method for operating a steam generation system, wherein the steam generation system comprises at least one boiler, wherein the method comprises: • conducting a fuel analysis of a solid fuel and anticipating at least one operation characteristic of the steam generation system at the time when a specific partial quantity of the solid fuel is combusted in a furnace of said at least one boiler of the steam generation system, and • determining at least one adapted setpoint of at least one operation parameter of the steam generation system so as to counteract and/or remedy changes of said at least one operation characteristic caused by the fuel composition of the specific partial quantity of the solid fuel, and characterized in • determining a time when the specific partial quantity of the solid fuel is expected to be conveyed to a pre-combustion fuel processing device (22, 24) and/or the furnace of said at least one boiler of the steam generation system. • conducting a fuel analysis of a solid fuel and anticipating at least one operation characteristic of the steam generation system at the time when a specific partial quantity of the solid fuel is combusted in a furnace of said at least one boiler of the steam generation system, and • determining at least one adapted setpoint of at least one operation parameter of the steam generation system so as to counteract and/or remedy changes of said at least one operation characteristic caused by the fuel composition of the specific partial quantity of the solid fuel, and • determining a time when the specific partial quantity of the solid fuel is expected to be conveyed to a pre-combustion fuel processing device (22, 24) and/or the furnace of said at least one boiler of the steam generation system.
An adaptor (30, 30a, 30b, 30c) for providing access to an interior of a cannula (4, 24), said cannula (4, 24) having two ends, a cannula lumen (7, 27) extending between said ends establishing an axial flow path (70, 70', 70"), and a side port extending at a right angle from said cannula (4, 24) having a side port channel providing access to said cannula lumen (7, 27) through a right angle, said adaptor (30, 30a, 30b, 30c) comprising a shaft (33a, 33b, 33c) configured to protrude into the cannula lumen (7, 27) and to provide exterior access to said cannula lumen (7, 27) through an adaptor lumen (31a, 31b, 31c) in said shaft (33, 33a, 33b), said adaptor lumen (31a, 31b, 31c) being further configured to receive an intervention device inserted therein; said shaft (33, 33a, 33b) of said adaptor lumen (31a, 31b, 31c) being a curved shaft or straight shafts (33b, 33c) having an angle, said adaptor lumen (31a, 31b, 31c) having a distal terminal opening configured to be exposed with said cannula lumen (7, 27), said shaft (33a, 33b, 33c) being configured to modify an angle of insertion of said intervention device through said adaptor lumen (31a, 31b, 31c) thereby and to direct said intervention device within said cannula lumen (7, 27) through said right angle of said side port channel in a direction consistent with said axial flow path (70, 70', 70"). providing access to an interior of a cannula (4, 24), said cannula (4, 24) having two ends, a cannula lumen (7, 27) extending between said ends establishing an axial flow path (70, 70', 70"), and a side port extending at a right angle from said cannula (4, 24) having a side port channel providing access to said cannula lumen (7, 27) through a right angle, said adaptor (30, 30a, 30b, 30c) comprising a shaft (33a, 33b, 33c) configured to protrude into the cannula lumen (7, 27) and to provide exterior access to said cannula lumen (7, 27) through an adaptor lumen (31a, 31b, 31c) in said shaft (33, 33a, 33b), said adaptor lumen (31a, 31b, 31c) being further configured to receive an intervention device inserted therein; said shaft (33, 33a, 33b) of said adaptor lumen (31a, 31b, 31c) being a curved shaft or straight shafts (33b, 33c) having an angle, said adaptor lumen (31a, 31b, 31c) having a distal terminal opening configured to be exposed with said cannula lumen (7, 27), said shaft (33a, 33b, 33c) being configured to modify an angle of insertion of said intervention device through said adaptor lumen (31a, 31b, 31c) thereby and to direct said intervention device within said cannula lumen (7, 27) through said right angle of said side port channel in a direction consistent with said axial flow path (70, 70', 70").