mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine comprising: - a tower, - a nacelle mounted on the tower, the nacelle being provided with a mounting interface at a lower part thereof, and - a movable container mounted on a lower part of or suspended below the nacelle; - wherein the movable container is further provided with a mounting interface which matches the mounting interface of the nacelle, thereby allowing the movable container to be detachably mounted on the lower part of the nacelle, characterized in that the movable container houses a hoisting mechanism for hoisting and/or lowering the movable container and for hoisting and/or lowering wind turbine components (9, 10, 11), wherein the hoisting mechanism is or comprises at least one winch. - a tower, - a nacelle mounted on the tower, the nacelle being provided with a mounting interface at a lower part thereof, and - a movable container mounted on a lower part of or suspended below the nacelle; - wherein the movable container is further provided with a mounting interface which matches the mounting interface of the nacelle, thereby allowing the movable container to be detachably mounted on the lower part of the nacelle,
An aqueous binder composition comprising: - at least one polymer P having a glass transition temperature T g in the range from -20 to + 60°C, in the form of an aqueous polymer dispersion PD which is obtainable by free-radical emulsion polymerization of at least one ethylenically unsaturated monomer M, and - 0.1 to 10% by weight, based on the sum of polymer P and oligomer, of one or more oligomers which are composed of ethylenically unsaturated monomers and have an average molecular weight M w of 1000 to 30 000 g/mol, a glass transition temperature T g in the range from +60 to +120°C, and an acid number in the range from 50 to 350. - at least one polymer P having a glass transition temperature T g in the range from -20 to + 60°C, in the form of an aqueous polymer dispersion PD which is obtainable by free-radical emulsion polymerization of at least one ethylenically unsaturated monomer M, and - 0.1 to 10% by weight, based on the sum of polymer P and oligomer, of one or more oligomers which are composed of ethylenically unsaturated monomers and have an average molecular weight M w of 1000 to 30 000 g/mol, a glass transition temperature T g in the range from +60 to +120°C, and an acid number in the range from 50 to 350.
A modular wind turbine blade, the modular wind turbine blade comprising a tip section and a mainboard section, the tip section connected to the mainboard section at an interface, wherein projecting elements project from opposite surfaces of at least one of said tip section and said mainboard section, the projecting elements comprising inwardly-facing gripper arms, and wherein the other section of said tip section and said mainboard section comprises receiving channels for receiving the projecting elements and coupling grooves for a snap-connection to the inwardly-facing gripper arms.
A filling-and-sealing device comprising: a filling machine configured to fill a container with a content fluid; a sealing machine configured to seal the container transferred from the filling machine; a chamber configured to cover the filling machine and the sealing machine; a gassing system configured to replace, in the chamber, a gas in the container with a second replacement gas based on a supply source outside the chamber; and a pre-gassing system configured to replace the gas in the container with a first replacement gas before processing by the gassing system in a state in which the first replacement gas remains in the chamber and wherein the first replacement gas is from the chamber and contains the second replacement gas, wherein in the filling machine, the gassing system is configured to sequentially perform non-seal gassing and seal gassing, wherein the non-seal gassing is performed without the opening of the container being closed, the seal gassing is performed with the opening of the container being closed by a filling nozzle of the filling machine. a filling machine configured to fill a container with a content fluid; a sealing machine configured to seal the container transferred from the filling machine; a chamber configured to cover the filling machine and the sealing machine; a gassing system configured to replace, in the chamber, a gas in the container with a second replacement gas based on a supply source outside the chamber; and a pre-gassing system configured to replace the gas in the container with a first replacement gas before processing by the gassing system in a state in which the first replacement gas remains in the chamber and wherein the first replacement gas is from the chamber and contains the second replacement gas, wherein in the filling machine, the gassing system is configured to sequentially perform non-seal gassing and seal gassing, wherein the non-seal gassing is performed without the opening of the container being closed, the seal gassing is performed with the opening of the container being closed by a filling nozzle of the filling machine.
A process for converting biomass to fuels and/or chemicals comprising the steps of: a) Activating the biomass to make it more susceptible to conversion, wherein said activating comprises subjecting the biomass to a pH swing of at least 4 pH units; b) Optionally adding a solvent; c) Partially converting the activated biomass to form a mixture of a bio-oil and an unconverted biomass, wherein the unconverted biomass refers to biomass that has not been converted to a liquid product; d) Separating the unconverted biomass from the bio-oil; and e) Subjecting the separated unconverted biomass from step d) to a conversion process comprising pyrolysis or flash pyrolysis, wherein the bio-oil is a mixture of liquid biomass derivative compounds and the separated unconverted biomass from step c) contains recalcitrant cellulose. a) Activating the biomass to make it more susceptible to conversion, wherein said activating comprises subjecting the biomass to a pH swing of at least 4 pH units; b) Optionally adding a solvent; c) Partially converting the activated biomass to form a mixture of a bio-oil and an unconverted biomass, wherein the unconverted biomass refers to biomass that has not been converted to a liquid product; d) Separating the unconverted biomass from the bio-oil; and e) Subjecting the separated unconverted biomass from step d) to a conversion process comprising pyrolysis or flash pyrolysis,
A polyol premix composition comprising at least one halogenated blowing agent, at least one polyol, water, and a catalyst composition comprising at least 10% tetraalkylguanidine and 10 to 90wt% of one or more of a tertiary amine catalyst with an isocyanate reactive group, in which the halogenated blowing agent contains a hydrohaloolefin.
A tenter oven having an entrance for a running film of a thermoplastic resin at one end thereof and an exit for the running film at the other end thereof, in which a plurality of air blowing nozzles (NUn, NLn) for blowing heated air to the running film is provided in such a manner that at least one of the air blowing nozzles (NUn, NLn) faces the upper face of a passing plane of the running film which is formed all the way from the entrance to the exit and at least another one of the air blowing nozzles (NUn, NLn) faces the lower face of the passing plane of the running film, wherein an air outlet for blowing the heated air out is provided in each of the air blowing nozzles (NUn, NLn) on an air blowing surface thereof facing the film passing plane and a stretching zone for stretching the running film in the width direction thereof is provided at a position between the entrance and the exit; and wherein at least one of the plurality of air blowing nozzles (NUn, NLn) is a proximate nozzle (NUn, NLn) in which the air outlet provided on the air blowing surface is formed with a slit being elongated in the width direction of the film and satisfying the formula: (L/B) ≤ 10, wherein L is the distance between the air blowing surface and the film passing plane; B is the slit width in the running direction of the film; and the distance L is 150 mm or less, wherein at least one of the proximate nozzles (NUn, NLn) comprises a housing and the housing has a flow path for the heated air supplied from a supply source therein and the air blowing surface on one of the faces thereof, and wherein the housing comprises a fixed housing and movable housings provided respectively at either end of the fixed housing, and the movable housings are capable of moving in the width direction of the running film to the fixed housing.
Domestic dishwasher having an appliance door, that has an operating panel with a handle shell formed from at least one bottom handle-shell part and a handle-shell cover, characterised in that the handle-shell cover has a side wall that faces the operating panel and together with the operating panel forms a double-wall structure having an intermediately located free installation space, wherein an electronic module, say for control or display elements (9, 11) of the operating panel, is located in the double-wall structure's installation space.
A packet for tobacco products, substantially in the shape of a parallelepiped and extending about a respective main direction, comprising a front wall, a rear wall facing the front wall, a pair of side walls (4, 5), a bottom wall and a top wall; comprising at least a first and a second corner wall each having a transversal dimension variable along the main direction; characterised in that the first corner wall has a geometry complementary to that of the second corner wall in such a way as to keep substantially constant the perimeter extension of each section of the packet transversal to the main direction.
A coaxial cable, comprising: an outer conductor and an inner conductor adapted to connect to an energy source; and first and second dielectric materials disposed between the inner conductor and the outer conductor that position the inner conductor relative to the outer conductor in a first position, wherein the first dielectric material has a first coefficient of thermal expansion and the second dielectric material has a second coefficient of thermal expansion different from the first coefficient of thermal expansion; characterized in that the first and second dielectric materials are thermally expandable and contractible to align or misalign the inner conductor relative to the outer conductor for tuning and impedance matching of the coaxial cable. an outer conductor and an inner conductor adapted to connect to an energy source; and first and second dielectric materials disposed between the inner conductor and the outer conductor that position the inner conductor relative to the outer conductor in a first position, wherein the first dielectric material has a first coefficient of thermal expansion and the second dielectric material has a second coefficient of thermal expansion different from the first coefficient of thermal expansion; characterized in that the first and second dielectric materials are thermally expandable and contractible to align or misalign the inner conductor relative to the outer conductor for tuning and impedance matching of the coaxial cable.
An electrical modular terminal, especially for connection of a current transformer, with a terminal housing, with at least two conductor connector elements (4, 5) located in the latter, and with at least two current bars (6, 7), the current bars (6, 7) each having one connector section (8, 8') and one first contact section (9, 9'), the connector sections (8, 8') being assigned to one conductor connector element (4, 5) at a time and the first contact sections (9, 9') together forming an elastic contact zone for accommodating the plug of a power plug, the first contact sections (9, 9') being spaced apart from one another and only with the plug inserted being connected to one another in an electrically conductive manner via the plug, wherein the current bars (6,7) having a second contact section each (13, 13'), characterized in that there are two other current bar pieces (14, 15) in the terminal housing, that in at last one current bar piece (14, 15) at least one recess being formed for inserting a leg of a plug-in jumper, wherein one current bar piece (14, 15) at a time is assigned to one current bar (6, 7) such that the second contact section (13, 13') of a current bar (6, 7) is connected in an electrically conductive manner to the assigned current bar piece (14, 15) when the plug is not plugged in, while the second contact section (13, 13') of a current bar (6, 7) is spaced apart from the assigned current bar piece (14, 15) when the plug has been plugged in.
A heater assembly for an aerosol-generating device, the heater assembly comprising: a first heater casing comprising an air inlet; a second heater casing comprising an aerosol outlet; a heating chamber for heating an aerosol-forming substrate, the heating chamber being in fluid communication with both the air inlet and aerosol outlet to define an airflow pathway through the heater assembly; wherein the heating chamber is arranged between the first and second heater casings; wherein the first and second heater casings are attached to each other by a fastener, the fastener being configured to exert an axial force on the first and second heater casings to urge axially opposing internal surfaces of the first and second heater casings into sealing engagement with respective axially opposing end surfaces of the heating chamber to seal the airflow pathway. a first heater casing comprising an air inlet; a second heater casing comprising an aerosol outlet; a heating chamber for heating an aerosol-forming substrate, the heating chamber being in fluid communication with both the air inlet and aerosol outlet to define an airflow pathway through the heater assembly; wherein the heating chamber is arranged between the first and second heater casings; wherein the first and second heater casings are attached to each other by a fastener, the fastener being configured to exert an axial force on the first and second heater casings to urge axially opposing internal surfaces of the first and second heater casings into sealing engagement with respective axially opposing end surfaces of the heating chamber to seal the airflow pathway.
A valve prosthesis comprising: a valve member (250, 450, 530, 710, 800) and an implantable frame (200, 301, 400, 500, 600) radially-expandable from a compressed configuration to an expanded configuration having an interior lumen characterised by the frame defining a laterally asymmetric partial sinus portion (241, 300, 310, 541, 705, 820) of the interior lumen extending around between about 10% and about 90% of the circumference of the frame in the expanded configuration.
A method of measuring porosity in a composite material (314; 414), the method comprising: emitting an ultrasonic signal (312; 412; 512) from a transmitting transducer (306; 406; 508) in an ultrasonic measurement system (300; 400; 500) into the composite material; receiving a response signal (316; 416) at a receiving transducer (308; 408; 508) in the ultrasonic measurement system from the composite material; filtering the response signal using a filter to pass only frequencies in the response signal within a selected frequency range to form a filtered response signal, wherein: the filter takes the form of a bandpass filter; and the filter is one of: a 1MHz filter with a ten percent bandwidth, a 2.00 MHz plus or minus ten percent filter, or a bandpass filter that has a center frequency of 5.0 MHz with a range of plus or minus ten percent; and identifying a porosity level of the composite material using the filtered response signal. emitting an ultrasonic signal (312; 412; 512) from a transmitting transducer (306; 406; 508) in an ultrasonic measurement system (300; 400; 500) into the composite material; receiving a response signal (316; 416) at a receiving transducer (308; 408; 508) in the ultrasonic measurement system from the composite material; filtering the response signal using a filter to pass only frequencies in the response signal within a selected frequency range to form a filtered response signal, wherein: the filter takes the form of a bandpass filter; and the filter is one of: a 1MHz filter with a ten percent bandwidth, a 2.00 MHz plus or minus ten percent filter, or a bandpass filter that has a center frequency of 5.0 MHz with a range of plus or minus ten percent; and the filter takes the form of a bandpass filter; and the filter is one of: a 1MHz filter with a ten percent bandwidth, a 2.00 MHz plus or minus ten percent filter, or a bandpass filter that has a center frequency of 5.0 MHz with a range of plus or minus ten percent; and identifying a porosity level of the composite material using the filtered response signal.
A method of wireless communication, comprising: receiving an identification of a plurality of channel state information, CSI, - reference signal, CSI-RS, resources configured and associated with a CSI process for CSI reporting; receiving a configuration signal identifying a subset of CSI-RS resources of the plurality of CSI-RS resources that are activated for CSI measurement and reporting, wherein the subset of the plurality of the CSI-RS resources includes fewer CSI-RS resources than the plurality of CSI-RS resources; and transmitting a CSI report based on the subset of CSI-RS resources; characterized by comprising: reaching a CSI reporting opportunity; identifying that none of the plurality of CSI-RS resources has been indicated as activated; determining at least one of the plurality of CSI-RS resources is activated based on a predetermined rule; wherein the predetermined rule includes one of: a first CSI-RS resource of the plurality of CSI-RS resources having a lowest index; or a second CSI-RS resource of the subset of CSI-RS resources having the lowest index of the subset of CSI-RS resources; measuring channel conditions associated with the at least one of the plurality of CSI-RS resources; and generating the CSI report using the measured channel conditions. receiving an identification of a plurality of channel state information, CSI, - reference signal, CSI-RS, resources configured and associated with a CSI process for CSI reporting; receiving a configuration signal identifying a subset of CSI-RS resources of the plurality of CSI-RS resources that are activated for CSI measurement and reporting, wherein the subset of the plurality of the CSI-RS resources includes fewer CSI-RS resources than the plurality of CSI-RS resources; and transmitting a CSI report based on the subset of CSI-RS resources; reaching a CSI reporting opportunity; identifying that none of the plurality of CSI-RS resources has been indicated as activated; determining at least one of the plurality of CSI-RS resources is activated based on a predetermined rule; wherein the predetermined rule includes one of: a first CSI-RS resource of the plurality of CSI-RS resources having a lowest index; or a second CSI-RS resource of the subset of CSI-RS resources having the lowest index of the subset of CSI-RS resources; measuring channel conditions associated with the at least one of the plurality of CSI-RS resources; and generating the CSI report using the measured channel conditions. a first CSI-RS resource of the plurality of CSI-RS resources having a lowest index; or a second CSI-RS resource of the subset of CSI-RS resources having the lowest index of the subset of CSI-RS resources; measuring channel conditions associated with the at least one of the plurality of CSI-RS resources; and generating the CSI report using the measured channel conditions.
A catalyst comprising from 0.1 wt % to 3 wt % of palladium, from 0.1 wt % to 3 wt % of gold, and a support comprising from 75 wt% to 99 wt% of titanium dioxide and from 1 wt% to 25 wt% of tungsten trioxide, wherein the weight ratio of palladium to gold is of 5:1 to 1:3.
A composition for reducing weight imbalances, force variations, and/or vibrations in a tire-wheel assembly comprising: a first plurality of particulate for positioning within the tire-wheel assembly, where each particle in the first plurality of particulate comprises a first material and has low energy absorption capabilities; a second plurality of particulate for positioning within the tire-wheel assembly, where each particle in the second plurality of particulate comprises a second material and has elevated energy absorption capabilities relative to each particle of the first plurality of particulate, the first material being different than the second material, characterized in that each particle in the first plurality of particulate has a shore D hardness equal to or greater than 50, where a majority or substantially all of the first plurality of particulate is at least 0.841 mm in size., and where each particle in the second plurality is formed at least partially of an elastomeric material. a first plurality of particulate for positioning within the tire-wheel assembly, where each particle in the first plurality of particulate comprises a first material and has low energy absorption capabilities; a second plurality of particulate for positioning within the tire-wheel assembly, where each particle in the second plurality of particulate comprises a second material and has elevated energy absorption capabilities relative to each particle of the first plurality of particulate, the first material being different than the second material, characterized in that each particle in the first plurality of particulate has a shore D hardness equal to or greater than 50, where a majority or substantially all of the first plurality of particulate is at least 0.841 mm in size., and where each particle in the second plurality is formed at least partially of an elastomeric material.