mhurhangee/ep-ind-claims huggingface dataset:
An engine enclosure comprising: a housing having a housing length and a housing width, the housing further including a plurality of side walls that extend along the housing length, the housing width W being defined between the side walls the housing defining a housing axis that extends along the housing length, the housing axis defining a vertical reference plane, the vertical reference plane being parallel to the side walls; a radiator fan configured to provide air flow across the radiator, the radiator fan further defining a fan plane perpendicular to an axis of rotation of the radiator fan, wherein the radiator fan is positioned between the side walls of the housing so that the fan plane is at a non-perpendicular angle (α) with respect to the vertical reference plane, characterized in that the engine enclosure comprises: an internal combustion engine positioned within the housing; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter greater than the housing width. a housing having a housing length and a housing width, the housing further including a plurality of side walls that extend along the housing length, the housing width W being defined between the side walls the housing defining a housing axis that extends along the housing length, the housing axis defining a vertical reference plane, the vertical reference plane being parallel to the side walls; a radiator fan configured to provide air flow across the radiator, the radiator fan further defining a fan plane perpendicular to an axis of rotation of the radiator fan, wherein the radiator fan is positioned between the side walls of the housing so that the fan plane is at a non-perpendicular angle (α) with respect to the vertical reference plane, characterized in that the engine enclosure comprises: an internal combustion engine positioned within the housing; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter greater than the housing width. an internal combustion engine positioned within the housing; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter greater than the housing width.
A component mounting device comprising: component supply devices which are placed side by side in a first axis direction and which each are configured to supply a component to be mounted on an object to a supply position; a movable section which is configured to obtain the component from the supply position and mounts the component at a mounting position (P3, P4) of the object; a driving mechanism (41, 43) which is configured to move the movable section in the first axis direction and a second axis direction orthogonal to the first axis direction; an imaging device which is configured to capture an image of the component held by the movable section, at an imaging position; and a control section which is configured to control the driving mechanism (41, 43) such that the driving mechanism (41, 43) moves the movable section from the supply position to the mounting position (P3, P4) via the imaging position and moves in a direction of movement at the time of imaging with either of the first axis direction or the second axis direction set to be the direction of movement at the time of imaging, when the movable section passes through the imaging position, the component mounting device being characterized in that the control section is configured to determine the direction of movement at the time of imaging, according to a first distance along the first axis direction and a second distance along the second axis direction from the imaging position to the mounting position (P3, P4). component supply devices which are placed side by side in a first axis direction and which each are configured to supply a component to be mounted on an object to a supply position; a movable section which is configured to obtain the component from the supply position and mounts the component at a mounting position (P3, P4) of the object; a driving mechanism (41, 43) which is configured to move the movable section in the first axis direction and a second axis direction orthogonal to the first axis direction; an imaging device which is configured to capture an image of the component held by the movable section, at an imaging position; and a control section which is configured to control the driving mechanism (41, 43) such that the driving mechanism (41, 43) moves the movable section from the supply position to the mounting position (P3, P4) via the imaging position and moves in a direction of movement at the time of imaging with either of the first axis direction or the second axis direction set to be the direction of movement at the time of imaging, when the movable section passes through the imaging position, the component mounting device being characterized in that the control section is configured to determine the direction of movement at the time of imaging, according to a first distance along the first axis direction and a second distance along the second axis direction from the imaging position to the mounting position (P3, P4).
Automatic dishwasher, in particular a program-controlled dishwasher, comprising a washing container that provides a washing chamber, and a spray arm (11, 12) that is arranged inside the washing container so as to be rotatable, the spray arm (11, 12) comprising, on the one hand, cleaning nozzles for each generating a cleaning spray cone and, on the other hand, drive nozzles that are preferably formed on the end face of the spray arm (11, 12) for each generating a drive jet for rotatably driving the spray arm (11, 12), which nozzles (19, 21) are fluidically connected to a circulating pump in order to be supplied with the washing solution, characterised in that the drive nozzles are each equipped with an adjustment unit that sets the spray characteristics of the drive jet of the relevant drive nozzle according to the pump pressure in such a way that a rotational speed of the spray arm (11, 12) that is independent of the pump pressure can be achieved.
Method for producing a polymer layer having at least one finely divided solid, wherein the at least one finely divided solid is selected from a group consisting of mottling fibres, planchettes, inorganic finely divided solids in the form of luminescence pigments, optically variable colour pigments, holographic particles or nanoparticles, and organic finely divided solids in the form of luminescing brightly coloured pigments, comprising the following method steps: a) providing the at least one finely divided solid; b) providing a liquid preparation, which contains at least one material, selected from a group comprising monomers, prepolymers, and polymers; c) introducing the at least one finely divided solid into the liquid preparation and homogenising the liquid preparation such that a pre-product material containing the at least one finely divided solid is formed; d) producing a layer of the pre-product material; and e) solidifying the pre-product material such that the polymer layer containing the at least one finely divided solid is formed, characterised in that during method step (e) the layer of the pre-product material is subjected to a pressing process for surface treatment. a) providing the at least one finely divided solid; b) providing a liquid preparation, which contains at least one material, selected from a group comprising monomers, prepolymers, and polymers; c) introducing the at least one finely divided solid into the liquid preparation and homogenising the liquid preparation such that a pre-product material containing the at least one finely divided solid is formed; d) producing a layer of the pre-product material; and e) solidifying the pre-product material such that the polymer layer containing the at least one finely divided solid is formed, characterised in that during method step (e) the layer of the pre-product material is subjected to a pressing process for surface treatment.
An aerosol-generating device, comprising: a housing provided with an accommodating cavity configured to accommodate an aerosol-generating article; a heater assembly comprising a heater and a base fixing the heater, the heater being configured to be inserted into the aerosol-generating article to heat an aerosol-generating material in the aerosol-generating article, thereby generating aerosol; a bottom support slidably connected to the housing, a movement direction of the bottom support being parallel to a length direction of the accommodating cavity; a drive assembly movably coupled to the heater assembly and a linkage assembly configured to trigger a movement of the bottom support toward an insertion opening of the accommodating cavity when the heater approaches or reaches the separation position, the aerosol generating device being characterized in that the drive assembly is configured to push or draw the heater assembly, thereby allowing the heater assembly to slide between a heating position and a separation position, the heating position being a position of the heater that is extended into the accommodating cavity, the separating position being another position of the heater that is withdrawn out and away from the accommodating cavity. a housing provided with an accommodating cavity configured to accommodate an aerosol-generating article; a heater assembly comprising a heater and a base fixing the heater, the heater being configured to be inserted into the aerosol-generating article to heat an aerosol-generating material in the aerosol-generating article, thereby generating aerosol; a bottom support slidably connected to the housing, a movement direction of the bottom support being parallel to a length direction of the accommodating cavity; a drive assembly movably coupled to the heater assembly and a linkage assembly configured to trigger a movement of the bottom support toward an insertion opening of the accommodating cavity when the heater approaches or reaches the separation position, the aerosol generating device being characterized in that the drive assembly is configured to push or draw the heater assembly, thereby allowing the heater assembly to slide between a heating position and a separation position, the heating position being a position of the heater that is extended into the accommodating cavity, the separating position being another position of the heater that is withdrawn out and away from the accommodating cavity.
An implantable electrode for electrical stimulation of a body, the electrode comprising a platinum-iridium cladding directly overlaying a tantalum core, the cladding forming an exposed surface of the electrode and having a maximum thickness defining a cladded zone between the exposed outer surface and the core, and characterized by the tantalum core having a surface that encroaches into the cladded zone by no more than approximately 0.00127 mm (50 micro-inches).
People conveyor configured for conveying passengers by at least one conveyance band travelling along a closed loop and comprising: at least one handrail element which is configured for moving parallel to the at least one conveyance band along a travel path forming a closed loop; at least one force sensor (18a, 18b), which is configured for detecting a force (F S1, F S2) exerted by the at least one handrail element in a direction transverse to the direction of movement of the at least one handrail element and for providing a corresponding force signal; characterised by a handrail element power calculation unit, which is configured for calculating the driving power (Pup, Pdown) which is necessary for driving the at least one handrail element based on at least one force signal provided by the at least one force sensor (18a, 18b). at least one handrail element which is configured for moving parallel to the at least one conveyance band along a travel path forming a closed loop; at least one force sensor (18a, 18b), which is configured for detecting a force (F S1, F S2) exerted by the at least one handrail element in a direction transverse to the direction of movement of the at least one handrail element and for providing a corresponding force signal; characterised by a handrail element power calculation unit, which is configured for calculating the driving power (Pup, Pdown) which is necessary for driving the at least one handrail element based on at least one force signal provided by the at least one force sensor (18a, 18b).
A communication system comprising - a cooktop having one or more than one induction coil, an inverter that drives the induction coil and a control unit, and - an appliance, suitable for being operated wirelessly on the cooktop, having a user interface that provides monitoring and controlling of the operating parameters and a microcontroller that contains the identification information and the operating parameters recorded in its memory, - a receiver coil disposed in the appliance that partially receives the power generated by the induction coil, characterized by - an encoding unit disposed in the appliance that changes the power received from the induction coil by the receiver coil by increasing/decreasing and - a decoding unit disposed in the cooktop which decodes the power change data received from the encoding unit through the induction coil and delivers the decoded data to the control unit. - a cooktop having one or more than one induction coil, an inverter that drives the induction coil and a control unit, and - an appliance, suitable for being operated wirelessly on the cooktop, having a user interface that provides monitoring and controlling of the operating parameters and a microcontroller that contains the identification information and the operating parameters recorded in its memory, - a receiver coil disposed in the appliance that partially receives the power generated by the induction coil, - an encoding unit disposed in the appliance that changes the power received from the induction coil by the receiver coil by increasing/decreasing and - a decoding unit disposed in the cooktop which decodes the power change data received from the encoding unit through the induction coil and delivers the decoded data to the control unit.
A method for producing hydrophilic polymer particles, the method comprising: step 1 of preparing a dispersion in which an aqueous-phase component including hydrophilic monomers and a polymerization initiator is dispersed in an oil-phase component including a hydrophobic solvent having a solubility of 1 mass % or less in water at 25°C; step 2 of reducing a dissolved oxygen concentration of the dispersion prepared in step 1; and step 3 of polymerizing the hydrophilic monomers in the aqueous phase by supplying oxygen to a reaction vessel and, while oxygen is being supplied, heating the dispersion whose dissolved oxygen concentration was reduced in step 2 in the reaction vessel so that a temperature of the dispersion increases, wherein a time from a start of reduction of the dissolved oxygen concentration of the dispersion in step 2 to a start of heating of the dispersion in step 3 is greater than or equal to 0.1 hour and less than or equal to 3.5 hours, and an amount of oxygen supplied to the reaction vessel in step 3 is greater than or equal to 0.02 volume % per hour and less than or equal to 0.9 volume % per hour with respect to a volume of the dispersion, under standard conditions of a temperature of 25°C and an absolute pressure of 101.3 kPa. step 1 of preparing a dispersion in which an aqueous-phase component including hydrophilic monomers and a polymerization initiator is dispersed in an oil-phase component including a hydrophobic solvent having a solubility of 1 mass % or less in water at 25°C; step 2 of reducing a dissolved oxygen concentration of the dispersion prepared in step 1; and step 3 of polymerizing the hydrophilic monomers in the aqueous phase by supplying oxygen to a reaction vessel and, while oxygen is being supplied, heating the dispersion whose dissolved oxygen concentration was reduced in step 2 in the reaction vessel so that a temperature of the dispersion increases, wherein a time from a start of reduction of the dissolved oxygen concentration of the dispersion in step 2 to a start of heating of the dispersion in step 3 is greater than or equal to 0.1 hour and less than or equal to 3.5 hours, and an amount of oxygen supplied to the reaction vessel in step 3 is greater than or equal to 0.02 volume % per hour and less than or equal to 0.9 volume % per hour with respect to a volume of the dispersion, under standard conditions of a temperature of 25°C and an absolute pressure of 101.3 kPa.
A method of making a doped conductive titanium oxide coating by atmospheric chemical vapor deposition during a float glass manufacturing process comprising: providing a heated glass ribbon in a float glass process; providing a uniform precursor gas mixture comprising a halogenated, inorganic titanium compound, a halogenated, inorganic niobium or tantalum dopant compound, an organic oxygen-containing compound and one or more inert carrier gases, wherein the halogenated, inorganic niobium or tantalum dopant compound comprises no more than 0.3 mol % of the precursor gas mixture; delivering the precursor gas mixture at a temperature below the thermal decomposition temperature of the precursor gas mixture to a location adjacent the heated glass ribbon to be coated, the float bath atmosphere surrounding the heated glass ribbon being at essentially atmospheric pressure; and bringing the precursor gas mixture into coating contact with the heated glass ribbon, the temperature of the heated glass ribbon being sufficient to cause reaction of the precursor gas mixture so as to deposit a doped titanium oxide coating at a deposition rate greater than 35 Å/sec. on the glass ribbon, the doped titanium oxide coating exhibiting an electrical conductivity of greater than 1x10 -3 S/cm, wherein the glass ribbon is at a temperature of 566°C (1050°F) - 732°C (1350°F). providing a heated glass ribbon in a float glass process; providing a uniform precursor gas mixture comprising a halogenated, inorganic titanium compound, a halogenated, inorganic niobium or tantalum dopant compound, an organic oxygen-containing compound and one or more inert carrier gases, wherein the halogenated, inorganic niobium or tantalum dopant compound comprises no more than 0.3 mol % of the precursor gas mixture; delivering the precursor gas mixture at a temperature below the thermal decomposition temperature of the precursor gas mixture to a location adjacent the heated glass ribbon to be coated, the float bath atmosphere surrounding the heated glass ribbon being at essentially atmospheric pressure; and bringing the precursor gas mixture into coating contact with the heated glass ribbon, the temperature of the heated glass ribbon being sufficient to cause reaction of the precursor gas mixture so as to deposit a doped titanium oxide coating at a deposition rate greater than 35 Å/sec. on the glass ribbon, the doped titanium oxide coating exhibiting an electrical conductivity of greater than 1x10 -3 S/cm, wherein the glass ribbon is at a temperature of 566°C (1050°F) - 732°C (1350°F).
Polishing device for polishing an object to be polished, wherein the polishing device comprises: a rotatable carrier body; a polishing body for polishing the object to be polished, when the polishing body rotates with the carrier body and acts upon the object to be polished; and a heat removal unit which is provided at the carrier body for removing heat from the polishing body and/or the object to be polished, when the polishing body rotates with the carrier body and the polishing body polishes the object to be polished; wherein the heat removal unit is configured to be activated and operated by the rotation process of the carrier body, such that the heat removal is triggered by generating an airstream by rotating the carrier body with the heat removal unit, wherein the heat removal unit comprises a plurality of through holes which pass through the carrier body as venting channels; wherein the venting channels are tilted at least at the main surface of the carrier body with respect to a radial extension of the carrier body, starting from a rotation axis, against a rotation direction of the carrier body, characterized in that the polishing body is attached or attachable at a main surface of the carrier body, and that the venting channels cause an air exchange between the main surface which is facing the polishing body and the main surface which is facing away from the polishing body of the carrier body. a rotatable carrier body; a polishing body for polishing the object to be polished, when the polishing body rotates with the carrier body and acts upon the object to be polished; and a heat removal unit which is provided at the carrier body for removing heat from the polishing body and/or the object to be polished, when the polishing body rotates with the carrier body and the polishing body polishes the object to be polished; wherein the heat removal unit is configured to be activated and operated by the rotation process of the carrier body, such that the heat removal is triggered by generating an airstream by rotating the carrier body with the heat removal unit, wherein the heat removal unit comprises a plurality of through holes which pass through the carrier body as venting channels; wherein the venting channels are tilted at least at the main surface of the carrier body with respect to a radial extension of the carrier body, starting from a rotation axis, against a rotation direction of the carrier body, characterized in that the polishing body is attached or attachable at a main surface of the carrier body, and that the venting channels cause an air exchange between the main surface which is facing the polishing body and the main surface which is facing away from the polishing body of the carrier body.
Integrated process to convert crude oil into petrochemical products comprising crude oil distillation, hydrocracking, aromatization and pyrolysis, which process comprises subjecting a hydrocracker feed to hydrocracking to produce ethane, LPG and BTX, subjecting LPG to aromatization and subjecting ethane produced in the process to pyrolysis, wherein said hydrocracker feed comprises: one or more of naphtha, kerosene and gasoil produced by crude oil distillation in the process; and refinery unit-derived light-distillate and/or refinery unit-derived middle-distillate produced in the process. one or more of naphtha, kerosene and gasoil produced by crude oil distillation in the process; and refinery unit-derived light-distillate and/or refinery unit-derived middle-distillate produced in the process.
Multifunctional coated fibre mesh weave as sheetlike material, consisting of fibre materials interwoven crosswise and having mesh openings in the range from 1×1 mm to 20×20 mm; where the mesh structure is in stable form, where the individual fibre materials of the fibre mesh weave have been provided with a finish, characterized in that the individual fibre materials of the fibre mesh weave are ensheathed with an electrically conductive layer above the finish, where the thickness of the coated fibre mesh weave is 0.2 mm to 3 mm, where the mesh structure has a strength in the range from 500 to 5000 N/5 cm, measured by the strip tensile test according to DIN EN ISO 13934-1, where elongation is in the range from 2% to 25%, measured by the strip tensile test according to DIN EN ISO 13934-1.