mhurhangee/ep-ind-claims huggingface dataset:
Method for consecutively producing at least two different polyethylene resins in one slurry loop reactor, comprising the steps of producing a first polyethylene resin in the presence of a Ziegler-Natta and/or a Chromium catalyst, and consecutively producing a second polyethylene resin in the presence of a metallocene catalyst, characterized in that the ratio of the melt flow index of the first produced polyethylene resin to the melt flow index of the second produced polyethylene resin is at least 0.3.
A drug-delivering insertable medical device for treating a medical condition associated with a body lumen, the body lumen comprising a plurality of layers, the drug-delivering insertable medical device comprising: an outer surface coated with a plurality of nano-carriers having a plurality of average diameters, a nano-carrier of the plurality of nano-carriers comprising a drug surrounded by an encapsulating medium, the encapsulating medium comprising a phospholipid, the nano-carrier having an average diameter suitable to penetrate at least one layer of the plurality of layers, wherein the plurality of average diameters range between 1 and 5000 nm, and a surface of the nano-carrier being devoid of the drug, wherein the drug is selected from a group comprising sirolimus, tacrolimus, everolimus, ethylrapamycin, zotarolimus, umirolimus and paclitaxel. an outer surface coated with a plurality of nano-carriers having a plurality of average diameters, a nano-carrier of the plurality of nano-carriers comprising a drug surrounded by an encapsulating medium, the encapsulating medium comprising a phospholipid, the nano-carrier having an average diameter suitable to penetrate at least one layer of the plurality of layers, wherein the plurality of average diameters range between 1 and 5000 nm, and a surface of the nano-carrier being devoid of the drug, wherein the drug is selected from a group comprising sirolimus, tacrolimus, everolimus, ethylrapamycin, zotarolimus, umirolimus and paclitaxel.
A method of killing and/or inactivating microbes, the method comprising the step of placing the microbes in contact with a catalyst by means of a fluid medium, wherein the catalyst comprises a solid support, which solid support comprises one or more fibres, and a metal cation fixed to the support, characterized by contacting the catalyst with the microbes in the presence of a peroxygen oxidant compound.
A cytotoxic protein comprising: a) an immunoglobulin-type binding region comprising one or more polypeptides and capable of specifically binding at least one extracellular target biomolecule, wherein said immunoglobulin-type binding region is derived from an antibody, wherein said extracellular target biomolecule is HER2/neu/ErbB2; and b) a Shiga toxin effector region comprising a polypeptide that is capable of effectuating Shiga toxin A Subunit cytotoxicity, and comprises: an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; wherein the protein is capable of causing death of a cell physically coupled with said HER2/neu/ErbB2; and wherein the binding region and the Shiga toxin effector region are oriented within the protein such that the binding region is located at a position that is more proximal to the carboxyterminus of the Shiga toxin effector region than the amino-terminus of the Shiga toxin effector region. a) an immunoglobulin-type binding region comprising one or more polypeptides and capable of specifically binding at least one extracellular target biomolecule, wherein said immunoglobulin-type binding region is derived from an antibody, wherein said extracellular target biomolecule is HER2/neu/ErbB2; and b) a Shiga toxin effector region comprising a polypeptide that is capable of effectuating Shiga toxin A Subunit cytotoxicity, and comprises: an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3;
Carrier for a green tyre, the carrier being a pallet, comprising: a) a supporting surface for supporting said green tyre, wherein said supporting surface is formed by at least two surface sections (10.1,..., 10.8, 11), b) a carrier structure which carries said supporting surface, and c) at least one supporting element (9.1,..., 9.8, 14.1,... 14.4) which includes a surface forming one of said at least two surface sections (10.1,..., 10.8), characterised in that said at least one supporting element (9.1,..., 9.8, 14.1,..., 14.4) with its surface section (10.1,..., 10.8) is moveable along a path relatively to the others of said at least two surface sections (10.1,..., 10.8, 11), wherein said path is oriented in an essentially vertical direction. a) a supporting surface for supporting said green tyre, wherein said supporting surface is formed by at least two surface sections (10.1,..., 10.8, 11), b) a carrier structure which carries said supporting surface, and c) at least one supporting element (9.1,..., 9.8, 14.1,... 14.4) which includes a surface forming one of said at least two surface sections (10.1,..., 10.8),
Insert for the customization of a sport or medical item (100,200) of the kind comprising at least one element made of a substantially soft material which, in use, is oriented towards the user's body, wherein said insert comprises at least a first layer of thermoformable material and a variable volume element which is connected, either removably or non-removably, to said layer of thermoformable material, characterized in that said insert comprises a second layer of thermoformable material, said variable volume element being sandwiched, either removably or non-removably, between said first and said second layers of thermoformable material (3, 9).
A battery case for containing a battery for driving a vehicle, comprising: a tray member made of a resin and configured to hold the battery; one or more beam members arranged so as to extend in at least one of width and longitudinal directions of the tray member, the one or more beam members supporting the tray member and having a recess formed therein; and a bottom wall interposed between the tray member and the one or more beam members and closing an aperture plane of the recess of the one or more beam members to form a closed cross-section, the bottom wall being constituted by a continuous metal plate underlying a bottom plate of the tray member. a tray member made of a resin and configured to hold the battery; one or more beam members arranged so as to extend in at least one of width and longitudinal directions of the tray member, the one or more beam members supporting the tray member and having a recess formed therein; and a bottom wall interposed between the tray member and the one or more beam members and closing an aperture plane of the recess of the one or more beam members to form a closed cross-section, the bottom wall being constituted by a continuous metal plate underlying a bottom plate of the tray member.
A method for wireless communications, comprising: determining a region of uplink transmissions in an uplink pilot timeslot, UpPTS, associated with a first radio access technology, RAT, network, wherein the UpPTS comprises three or more symbols allocated for uplink transmissions; aligning uplink transmissions between the first RAT network and a second RAT network so that the first RAT network coexists with the second RAT network; and transmitting in the UpPTS; wherein a portion of the symbols allocated for uplink transmissions overlaps with at least a guard period, GP, and an UpPTS associated with the second RAT network; characterized in that a number of symbols allocated for a GP and the UpPTS associated with the first RAT network is determined by: • determining a total time duration of the GP and the UpPTS associated with the second RAT network, and uplink timeslots that are associated with the second RAT network; and • determining a difference between the total time duration and a time duration of uplink subframes associated with the first RAT network. determining a region of uplink transmissions in an uplink pilot timeslot, UpPTS, associated with a first radio access technology, RAT, network, wherein the UpPTS comprises three or more symbols allocated for uplink transmissions; aligning uplink transmissions between the first RAT network and a second RAT network so that the first RAT network coexists with the second RAT network; and transmitting in the UpPTS; wherein a portion of the symbols allocated for uplink transmissions overlaps with at least a guard period, GP, and an UpPTS associated with the second RAT network; characterized in that a number of symbols allocated for a GP and the UpPTS associated with the first RAT network is determined by: • determining a total time duration of the GP and the UpPTS associated with the second RAT network, and uplink timeslots that are associated with the second RAT network; and • determining a difference between the total time duration and a time duration of uplink subframes associated with the first RAT network. • determining a total time duration of the GP and the UpPTS associated with the second RAT network, and uplink timeslots that are associated with the second RAT network; and • determining a difference between the total time duration and a time duration of uplink subframes associated with the first RAT network.
A cable, comprising: a longitudinal core having a thermal expansion coefficient and comprising at least one of aramid, ceramic, boron, poly(p-phenylene-2,6-benzobisoxazole), graphite, carbon, titanium, tungsten, or shape memory alloy; and a plurality of wires collectively having a thermal expansion coefficient greater than the thermal expansion coefficient of the core, wherein the plurality of wires comprise at least one of aluminum wires, copper wires, aluminum alloy wires, or copper alloy wires, and wherein the plurality of wires are stranded around the core, wherein the cable has a stress parameter not greater than 5 MPa, with the proviso that if the longitudinal core comprises metal matrix composite wire, the core separately comprises at least one of aramid, ceramic, boron, poly(p-phenylene-2,6-benzobisoxazole), graphite, carbon, titanium, tungsten, or shape memory alloy. a longitudinal core having a thermal expansion coefficient and comprising at least one of aramid, ceramic, boron, poly(p-phenylene-2,6-benzobisoxazole), graphite, carbon, titanium, tungsten, or shape memory alloy; and a plurality of wires collectively having a thermal expansion coefficient greater than the thermal expansion coefficient of the core, wherein the plurality of wires comprise at least one of aluminum wires, copper wires, aluminum alloy wires, or copper alloy wires, and wherein the plurality of wires are stranded around the core, wherein the cable has a stress parameter not greater than 5 MPa, with the proviso that if the longitudinal core comprises metal matrix composite wire, the core separately comprises at least one of aramid, ceramic, boron, poly(p-phenylene-2,6-benzobisoxazole), graphite, carbon, titanium, tungsten, or shape memory alloy.
A circuit branch measurement device comprising: - at least one current measurement and data transmitting device, further comprising: • a microprocessor configured to obtain and process measurement signals, • a communication driver configured to transmit collective data to an external device, • an identification microchip for associating identification numbers to current sensors, • an input/output interface for external power supply and data transmission, and • at least one connector for connecting to a current sensor - at least one current sensor module comprising: • a current sensor to measure a current by a conductor, and - a further connector connected to the input/output interface for electrically connecting to an external device for power supply and data transmission, wherein the at least one connector of the current measurement and data transmitting device provides a mechanical fastening and an electrical connection to the at least one current sensor module for detecting a current by at least one circuit branch in an electrical distribution panel, and in that the mechanically coupled and electrically connected at least one current measurement and data transmitting device and the at least one current sensor module fit in a conventional panel board, wherein the current measurement and data transmitting device is configured to aggregate and consolidate measurements from at least one of the current sensor modules to be transmitted from the device to an external device. - at least one current measurement and data transmitting device, further comprising: • a microprocessor configured to obtain and process measurement signals, • a communication driver configured to transmit collective data to an external device, • an identification microchip for associating identification numbers to current sensors, • an input/output interface for external power supply and data transmission, and • at least one connector for connecting to a current sensor • a microprocessor configured to obtain and process measurement signals, • a communication driver configured to transmit collective data to an external device, • an identification microchip for associating identification numbers to current sensors, • an input/output interface for external power supply and data transmission, and • at least one connector for connecting to a current sensor - at least one current sensor module comprising: • a current sensor to measure a current by a conductor, and • a current sensor to measure a current by a conductor, and - a further connector connected to the input/output interface for electrically connecting to an external device for power supply and data transmission,
A fluid working machine comprising: a rotation shaft; at least one cylinder; at least one piston which reciprocates along an axial direction of the cylinder and forms a working chamber with the cylinder and a piston ring provided on an outer circumference of the piston; at least one cam which rotates with the rotation shaft; at least one cam chamber which houses the cam and which is sealed from an external atmosphere; characterized in that it comprises at least one drive rod whose one end is engaged with the piston such that an angle of the drive rod with respect to the axial direction of the cylinder is changeable and whose other end contacts the cam; and in that a working fluid pressure in the working chamber is constantly set higher than a working fluid pressure in the cam chamber so that the working fluid is supplied from the working chamber to the cam chamber via a gap formed between the cylinder and the piston. a rotation shaft; at least one cylinder; at least one piston which reciprocates along an axial direction of the cylinder and forms a working chamber with the cylinder and a piston ring provided on an outer circumference of the piston; at least one cam which rotates with the rotation shaft; at least one cam chamber which houses the cam and which is sealed from an external atmosphere; characterized in that it comprises at least one drive rod whose one end is engaged with the piston such that an angle of the drive rod with respect to the axial direction of the cylinder is changeable and whose other end contacts the cam; and in that a working fluid pressure in the working chamber is constantly set higher than a working fluid pressure in the cam chamber so that the working fluid is supplied from the working chamber to the cam chamber via a gap formed between the cylinder and the piston.
A container made of thermoplastic material for the storage and transport of liquid or free-flowing contents, which container is produced in a blow molding process and, at a container opening in the top of the container, is provided with a welded-on bung connector part prefabricated in an injection molding process and having internal threads for closing the container opening which are provided at the upper end, wherein - on the container side a shortened welded bung connector is formed which is formed in a blow molding process, encloses the container opening and is provided with an annular welding surface facing obliquely upward with a circular inner edge and a circular outer edge, - the bung connector part, prefabricated in an injection molding process, is formed as a solid threaded welding head with an internal thread by material accumulation and - has a corresponding annular welding surface facing obliquely downward with a circular inner edge and a circular outer edge, - the two annular welding surfaces (14, 22) are materially bonded to one another in a fixed and non-detachable manner and with normal upright positioning of the container, the outer edges (18, 26) of the two welding surfaces (14, 22) lying one on top of the other - as viewed in the horizontal plane - are arranged higher than the inner edges (16, 24) of the two welding surfaces (14, 22). - on the container side a shortened welded bung connector is formed which is formed in a blow molding process, encloses the container opening and is provided with an annular welding surface facing obliquely upward with a circular inner edge and a circular outer edge, - the bung connector part, prefabricated in an injection molding process, is formed as a solid threaded welding head with an internal thread by material accumulation and - has a corresponding annular welding surface facing obliquely downward with a circular inner edge and a circular outer edge, - the two annular welding surfaces (14, 22) are materially bonded to one another in a fixed and non-detachable manner
A method for heat treating an iron-carbon alloy, the method comprising acts of: heating, the iron-carbon alloy to a first pre-determined temperature at a pre-determined heating rate, wherein the first pre-determined temperature ranges from about 800°C to about 1000°C and the pre-determined heating rate ranges from 0.01°C/second to about 5°C/second; holding, the iron-carbon alloy at the first pre-determined temperature for a pre-set period of time, wherein the pre-set period of time ranges from about 300 seconds to about 5400 seconds; cooling, the iron-carbon alloy to a second pre-determined temperature at a pre-determined cooling rate, wherein the second pre-determined temperature is room temperature and the pre-determined cooling rate ranges from about 0.01°C/second to 10°C/second; and inducing, magnetic field on the iron-carbon alloy during the heating and the cooling of the iron-carbon alloy, to improve formation of pearlitic structure, wherein strength of the magnetic field ranges from about 0.1 Tesla to about 5 Tesla, wherein the iron-carbon alloy comprises: Carbon at about 0.4 wt% to about 1.2 wt %; Manganese (Mn) at about 0.4 wt% to about 0.85 wt %; Silicon (Si) at about 0.05 wt% to about 0.35 wt %; Sulphur at about 0.01 wt% to about 0.06 wt %; Phosphorus at about 0.02 wt% to about 0.05 wt %; Aluminium at about 0.02 wt% to about 0.06 wt %; Nitrogen at about 0.004 wt% to about 0.009 wt %; wherein the balance being Iron (Fe) optionally along with incidental elements of the alloy. heating, the iron-carbon alloy to a first pre-determined temperature at a pre-determined heating rate, wherein the first pre-determined temperature ranges from about 800°C to about 1000°C and the pre-determined heating rate ranges from 0.01°C/second to about 5°C/second; holding, the iron-carbon alloy at the first pre-determined temperature for a pre-set period of time, wherein the pre-set period of time ranges from about 300 seconds to about 5400 seconds; cooling, the iron-carbon alloy to a second pre-determined temperature at a pre-determined cooling rate, wherein the second pre-determined temperature is room temperature and the pre-determined cooling rate ranges from about 0.01°C/second to 10°C/second; and inducing, magnetic field on the iron-carbon alloy during the heating and the cooling of the iron-carbon alloy, to improve formation of pearlitic structure, wherein strength of the magnetic field ranges from about 0.1 Tesla to about 5 Tesla, Carbon at about 0.4 wt% to about 1.2 wt %; Manganese (Mn) at about 0.4 wt% to about 0.85 wt %; Silicon (Si) at about 0.05 wt% to about 0.35 wt %; Sulphur at about 0.01 wt% to about 0.06 wt %; Phosphorus at about 0.02 wt% to about 0.05 wt %; Aluminium at about 0.02 wt% to about 0.06 wt %; Nitrogen at about 0.004 wt% to about 0.009 wt %; wherein the balance being Iron (Fe) optionally along with incidental elements of the alloy.
An automotive lighting system including - a signal emitting device to be installed in a lamp socket connected to a lighting connection of a vehicle, said signal emitting device emitting a radio signal depending on electrical power supplied to said lighting connection, - and a lighting module to be connected to an electrical power supply of said vehicle, said lighting module comprising at least a receiver for said radio signal, and a control unit for controlling a vehicle front light source, - where said control unit is disposed to operate said vehicle front light source in a first mode if said radio signal is received in said receiver, and to operate said light source in a second mode if said radio signal is not received in said receiver, and - wherein said vehicle front light source is driven in said second mode to emit a higher luminous flux than in said first mode. - a signal emitting device to be installed in a lamp socket connected to a lighting connection of a vehicle, said signal emitting device emitting a radio signal depending on electrical power supplied to said lighting connection, - and a lighting module to be connected to an electrical power supply of said vehicle, said lighting module comprising at least a receiver for said radio signal, and a control unit for controlling a vehicle front light source, - where said control unit is disposed to operate said vehicle front light source in a first mode if said radio signal is received in said receiver, and to operate said light source in a second mode if said radio signal is not received in said receiver, and - wherein said vehicle front light source is driven in said second mode to emit a higher luminous flux than in said first mode.