mhurhangee/ep-ind-claims huggingface dataset:
A surface-treatment solution for a zinc or zinc alloy coated steel sheet containing a glycidyl group-containing silane coupling agent, a tetraalkoxysilane, a zirconium carbonate compound, and an anionic polyurethane resin having a glass transition temperature (Tg) of 80 °C to 130 °C, a vanadium compound, a molybdic acid compound, and water, the surface-treatment solution having a pH of 8.0 to 10.0, and the amount of each component satisfying: a mass ratio (Xs/Ds) of a total mass (Xs) of a solid content mass (As) of the glycidyl group-containing silane coupling agent, a solid content mass (Bs) of the tetraalkoxysilane, and a ZrO 2 equivalent mass (Cz) in the zirconium carbonate compound to a solid content mass (Ds) of the anionic polyurethane resin is from 0.05 to 0.35; a mass ratio (As/Xs) of the solid content mass (As) of the glycidyl group-containing silane coupling agent to the total mass (Xs) is from 0.20 to 0.40; a mass ratio (Bs/Xs) of the solid content mass (Bs) of the tetraalkoxysilane to the total mass (Xs) is from 0.010 to 0.30; a mass ratio (Cz/Xs) of the ZrO 2 equivalent mass (Cz) in the zirconium carbonate compound to the total mass (X S) is from 0.45 to 0.70; a mass ratio (E V /(X S + D S)) of a V equivalent mass (E V) in the vanadium compound to a total mass (X S + D S) of the total mass (X S) and the solid content mass (Ds) of the anionic polyurethane resin is from 0.0010 to 0.015; and a mass ratio F M /(X S + D S)) of a Mo equivalent mass (F M) in the molybdic acid compound to the total mass (X S + D S) of the total mass (Xs) and the solid content mass (Ds) of the anionic polyurethane resin is from 0.0010 to 0.015. a mass ratio (Xs/Ds) of a total mass (Xs) of a solid content mass (As) of the glycidyl group-containing silane coupling agent, a solid content mass (Bs) of the tetraalkoxysilane, and a ZrO 2 equivalent mass (Cz) in the zirconium carbonate compound to a solid content mass (Ds) of the anionic polyurethane resin is from 0.05 to 0.35; a mass ratio (As/Xs) of the solid content mass (As) of the glycidyl group-containing silane coupling agent to the total mass (Xs) is from 0.20 to 0.40; a mass ratio (Bs/Xs) of the solid content mass (Bs) of the tetraalkoxysilane to the total mass (Xs) is from 0.010 to 0.30; a mass ratio (Cz/Xs) of the ZrO 2 equivalent mass (Cz) in the zirconium carbonate compound to the total mass (X S) is from 0.45 to 0.70; a mass ratio (E V /(X S + D S)) of a V equivalent mass (E V) in the vanadium compound to a total mass (X S + D S) of the total mass (X S) and the solid content mass (Ds) of the anionic polyurethane resin is from 0.0010 to 0.015; and a mass ratio F M /(X S + D S)) of a Mo equivalent mass (F M) in the molybdic acid compound to the total mass (X S + D S) of the total mass (Xs) and the solid content mass (Ds) of the anionic polyurethane resin is from 0.0010 to 0.015.
A three-dimensional structure for use in a method of implanting into a heart of human to treat dilated cardiomyopathy, dilated phase hypertrophic cardiomyopathy or ischemic heart disease, comprising a cell derived from a part other than myocardium of an adult, wherein the three-dimensional structure is free from a scaffold, and has at least 6 cm 2 area, and wherein the cell is a myoblast.
A food processing machine for processing a food product, the food processing machine comprising: a housing defining a cavity (30, 31); a conveyor with a belt comprising metal for conveying the food product through the cavity in a longitudinal direction; a convection heating system for heating air in the cavity such that heated air heats the food product as the food product is conveyed through the cavity; a microwave launch box system configured to emit microwave energy into the cavity in a lateral direction transverse to the longitudinal direction to thereby further heat the food product as the food product is conveyed through the cavity; characterized in that the food processing machine further comprises: a microwave monitoring detector for detecting microwave energy leaking from the machine; and a controller in communication with the microwave monitoring detector, the controller being configured to shut off at least one launch box assembly or magnetron of the microwave launch box system when the microwave energy detected by the microwave monitoring detector is equal to or greater than a maximum allowable microwave energy leakage value. a housing defining a cavity (30, 31); a conveyor with a belt comprising metal for conveying the food product through the cavity in a longitudinal direction; a convection heating system for heating air in the cavity such that heated air heats the food product as the food product is conveyed through the cavity; a microwave launch box system configured to emit microwave energy into the cavity in a lateral direction transverse to the longitudinal direction to thereby further heat the food product as the food product is conveyed through the cavity; characterized in that the food processing machine further comprises: a microwave monitoring detector for detecting microwave energy leaking from the machine; and a controller in communication with the microwave monitoring detector, the controller being configured to shut off at least one launch box assembly or magnetron of the microwave launch box system when the microwave energy detected by the microwave monitoring detector is equal to or greater than a maximum allowable microwave energy leakage value. a microwave monitoring detector for detecting microwave energy leaking from the machine; and a controller in communication with the microwave monitoring detector, the controller being configured to shut off at least one launch box assembly or magnetron of the microwave launch box system when the microwave energy detected by the microwave monitoring detector is equal to or greater than a maximum allowable microwave energy leakage value.
A method for determining a substitute distance between a location and a point of impact of a projectile in a horizontal plane in common with the location, wherein a target distance D between the location and a target, which are arranged on a line of sight, is determined, and wherein an elevation angle α, which is enclosed by the line of sight and the horizontal plane, is determined, characterized in that a correction function is determined exclusively from non-ballistic parameters, such as at least the target distance D and the elevation angle α, and thus the target distance D is modified to determine the substitute distance in the horizontal plane, wherein the substitute distance for the previously determined target distance D and the previously determined elevation angle α is calculated by multiplying the target distance D with a correction factor KF(D, α), which depends merely on the target distance D and the elevation angle α, and the substitute distance is used for aiming in place of the value of the actual target distance D.
Household dishwasher comprising a washing container which has a loading opening, wherein the loading opening can be closed by means of a door of the household dishwasher, wherein the household dishwasher comprises an electrical drive device, by means of which the door can be moved between a closed position, in which it closes the loading opening, and an open position, in which the washing container is accessible from outside, characterised in that the household dishwasher has a control unit which is designed to identify a manual movement of the door performed by an operator in a specific direction of movement by detecting at least one characteristic variable of the drive device and to move the door further in the aforementioned direction of movement by means of the drive device as a result of the movement, and that the drive device comprises a permanently excited drive motor with a rotor which is mechanically coupled to the door, such that the movement of the door manually brought about by the operator brings about a movement of the rotor, whereby an electrical voltage is induced in the drive motor, wherein the control unit is configured to detect the electrical voltage as a characteristic variable of the drive device and wherein the control unit is configured, when detecting the electrical voltage, to operate the drive motor such that the door is moved further in the aforementioned direction of movement.
Curved wing section for an aircraft, which is curved in a frontal view and has at least one pivotable trailing edge flap that is mounted on the wing section by means of at least one hinge with a hinge axle, characterized in that in the extension range of the at least one trailing edge flap, for a plurality of planes (A,B,C) perpendicular to the hinge axle the outer skin contour (20, 22) of the trailing edge flap is defined by the perpendicular from the hinge axle point onto the upper or lower outer skin (14, 16) of the wing section, or the virtual extension thereof, wherein the feet of the perpendicular each define radii with which the upper and lower outer skin contour (28, 30) of the trailing edge flap extend in the flow direction at least by the pivoting range of the trailing edge flap, and in addition the outer skin (14, 16) of the wing section ends at a constant distance immediately in front of the respective foot, in each case forming a gap (32, 34).
A method of manufacturing a container which comprises positioning metal plates (10, 12, 14) against one another to define an interior space and welding the seams between the plates (10, 12, 14), characterised in that the interior space is partially filled with a granular refractory material prior to the welding of the seams, in order to prevent any weld spatter from adhering to the interior of the container and/or to prevent burr from being created at the seams, and wherein the container is re-oriented during welding such that the granular refractory material contacts the seams.
A process for the isolation of levulinic acid from an organic solution, comprising: - washing said organic solution with an alkaline aqueous stream to yield a washed organic solution; - subjecting the washed organic solution to a distillation to yield a distillate and a distillation residue; and - recovering levulinic acid from the distillate and/or the residue. - washing said organic solution with an alkaline aqueous stream to yield a washed organic solution; - subjecting the washed organic solution to a distillation to yield a distillate and a distillation residue; and - recovering levulinic acid from the distillate and/or the residue.
Apparatus for binding dust, comprising a binding agent reservoir which provides pressurized liquid binding agent, a binding agent line which is connected to the binding agent reservoir, wherein at least one atomizing nozzle (20, 21) is connected to the binding agent line, which can be arranged in the vicinity of a dust source, and in that the binder line has one or more pressure control valves which are designed such that they open as pressure switching valves from a predetermined switching pressure and thus release a supply of binder to the atomizing nozzle(s) (20, 21) or open as pressure control valves also from a predetermined switching pressure and at the same time regulate the pressure on the outflow side of the pressure control valve to a predetermined pressure range, and in that the binding agent reservoir comprises at least one pressure vessel with a gas cushion, which is divided into a gas pressure chamber and a binding agent chamber, the binding agent line having a length of at least 100 m, along which several atomizing nozzles (20, 21) are arranged.
An apparatus comprising a radome, and an active electronics module, wherein: the radome is configured to support mounting of at least one antenna array (132 or 134) behind the radome; the active electronics module comprises one or more radio frequency, RF, connectors (128, 126), wherein the active electronics module is physically removably connected to an outer surface of the radome and is electrically removably connected to the at least one antenna array within the radome via one or more RF cables (1138, 138) connected to the one or more RF connectors (128, 128), and wherein the active electronics module is configured to process at least one of (i) downlink signals transmitted by the at least one antenna array (132 or 134) and (ii) uplink signals received at the at least one antenna array (132 or 134), the apparatus further comprising an electronics module mounting structure including a first reusable fastener configured to receive a second reusable fastener coupled to the radome, characterized in that the first and second reusable fasteners configured to support removable attachment of the active electronics module behind the radome, such that if the radome is mounted to a cell tower with the active electronics module removably attached behind the radome, then the active electronics module can be removed from behind the radome by sliding the active electronics module in a direction that is perpendicular to the longitudinal axis of the radome, without removing the radome from the cell tower. the radome is configured to support mounting of at least one antenna array (132 or 134) behind the radome; the active electronics module comprises one or more radio frequency, RF, connectors (128, 126), wherein the active electronics module is physically removably connected to an outer surface of the radome and is electrically removably connected to the at least one antenna array within the radome via one or more RF cables (1138, 138) connected to the one or more RF connectors (128, 128), and wherein the active electronics module is configured to process at least one of (i) downlink signals transmitted by the at least one antenna array (132 or 134) and (ii) uplink signals received at the at least one antenna array (132 or 134), the apparatus further comprising an electronics module mounting structure including a first reusable fastener configured to receive a second reusable fastener coupled to the radome, characterized in that the first and second reusable fasteners configured to support removable attachment of the active electronics module behind the radome, such that if the radome is mounted to a cell tower with the active electronics module removably attached behind the radome, then the active electronics module can be removed from behind the radome by sliding the active electronics module in a direction that is perpendicular to the longitudinal axis of the radome, without removing the radome from the cell tower.
An electrical storage device terminal film arranged covering part of an outer peripheral surface of a metal terminal electrically connected to an electrical storage device body configuring an electrical storage device, comprising: a first outermost layer including a first insulating layer; a second outermost layer including a second insulating layer; and an insulating filler (36, 39) added to at least one of the first insulating layer and the second insulating layer, the insulating filler has an amorphous shape, characterised in that, part of the insulating filler (36, 39) is arranged being protruded from an outer surface (35a, 38a) of the insulating layer (35, 38) to which the insulating filler has been added. a first outermost layer including a first insulating layer; a second outermost layer including a second insulating layer; and an insulating filler (36, 39) added to at least one of the first insulating layer and the second insulating layer, the insulating filler has an amorphous shape, characterised in that, part of the insulating filler (36, 39) is arranged being protruded from an outer surface (35a, 38a) of the insulating layer (35, 38) to which the insulating filler has been added.
Malting method, especially in the context of beer production, in which unmalted grain is softened in water, during which the mixture comprising the water and the unmalted grain is set in mechanical vibration for at least one period of time in the softening operation, characterized in that during the at least one period of time in the softening operation the mixture is set in mechanical vibration having a vibration frequency having a value between 180 and 300 Hz.
A system comprising: a plurality of predetermined focusing optic units (20, 30, 40, 50); and an adaptor comprising a body, wherein the body comprises: an inner chamber that is adapted to receive an electronic recording device that records images, wherein the electronic recording device is a smart phone, pocket computer, or tablet computer; and a space that is formed on a location that comes across a camera of the received electronic recording device; the adaptor further comprising; a mounting part located on a front side of the adaptor at the space to provide connection for the plurality of predetermined focusing optic units, the front side of the adaptor being a side of the body that is opposite to the inner chamber wherein each of the plurality of predetermined focusing optic units comprises; a coupling part that is adapted to connect to said mounting part, wherein the coupling part of the plurality of predetermined focusing optic units is identical and shaped compatible with the mounting part; and a lens assembly that is pre-selected for a body part to be visualized, wherein the plurality of predetermined focusing optic units are adapted to be used in indirect ophthalmoscopy, otoscopy, dermatoscopy, and colposcopy, wherein the plurality of predetermined focusing optic units comprise zoom lenses which are fixed and replaceable, and wherein the zoom lenses are aspheric lenses whose dioptre value can be changed. a plurality of predetermined focusing optic units (20, 30, 40, 50); and an adaptor comprising a body, wherein the body comprises: an inner chamber that is adapted to receive an electronic recording device that records images, wherein the electronic recording device is a smart phone, pocket computer, or tablet computer; and a space that is formed on a location that comes across a camera of the received electronic recording device; an inner chamber that is adapted to receive an electronic recording device that records images, wherein the electronic recording device is a smart phone, pocket computer, or tablet computer; and a space that is formed on a location that comes across a camera of the received electronic recording device; the adaptor further comprising; a mounting part located on a front side of the adaptor at the space to provide connection for the plurality of predetermined focusing optic units, the front side of the adaptor being a side of the body that is opposite to the inner chamber wherein each of the plurality of predetermined focusing optic units comprises; a coupling part that is adapted to connect to said mounting part, wherein the coupling part of the plurality of predetermined focusing optic units is identical and shaped compatible with the mounting part; and a lens assembly that is pre-selected for a body part to be visualized, wherein the plurality of predetermined focusing optic units are adapted to be used in indirect ophthalmoscopy, otoscopy, dermatoscopy, and colposcopy, wherein the plurality of predetermined focusing optic units comprise zoom lenses which are fixed and replaceable, and wherein the zoom lenses are aspheric lenses whose dioptre value can be changed.
A system, comprising: a gasifier comprising a shell made of a first material exposed to a flow of a condensing corrosive gas inside the gasifier; and an impressed current system comprising an anode layer inside the gasifier and in electrical contact with the shell, wherein the anode layer is made of a second material and is configured as one of a metal mesh, a grid (221, 241, 251, 261), a weave of metal ribbons or a foil with perforations (284, 304) arranged in a pattern, attached to the surface of the shell; and a power source and a transformer rectifier coupled to the anode layer, the power source arranged to supply a constant current to the transformer rectifier and the transformer rectifier configured to impress a current through the anode layer to actively protect the first material from corrosion by the condensing corrosive gas. a gasifier comprising a shell made of a first material exposed to a flow of a condensing corrosive gas inside the gasifier; and an impressed current system comprising an anode layer inside the gasifier and in electrical contact with the shell, wherein the anode layer is made of a second material and is configured as one of a metal mesh, a grid (221, 241, 251, 261), a weave of metal ribbons or a foil with perforations (284, 304) arranged in a pattern, attached to the surface of the shell; and a power source and a transformer rectifier coupled to the anode layer, the power source arranged to supply a constant current to the transformer rectifier and the transformer rectifier configured to impress a current through the anode layer to actively protect the first material from corrosion by the condensing corrosive gas. an anode layer inside the gasifier and in electrical contact with the shell, wherein the anode layer is made of a second material and is configured as one of a metal mesh, a grid (221, 241, 251, 261), a weave of metal ribbons or a foil with perforations (284, 304) arranged in a pattern, attached to the surface of the shell; and a power source and a transformer rectifier coupled to the anode layer, the power source arranged to supply a constant current to the transformer rectifier and the transformer rectifier configured to impress a current through the anode layer to actively protect the first material from corrosion by the condensing corrosive gas.
An electrically insulated boot configured for enclosing an electrical connection between two or more electrical conductors comprising: a boot having a side wall defining an opening for accessing the electrical connection; a cover attached to the side wall by a hinge such that the cover can be selectively moved between a closed position preventing access to the enclosed electrical conductors and an open position permitting access to the enclosed electrical conductors; a cover securing means preventing the cover from being unintentionally moved from the closed position to the open position; and a boot securing means for preventing the boot from being removed from the electrical conductors, wherein the boot and the hinge are formed from a pliable electrically insulating material, and wherein the hinge is an integral part of the side wall and cover, characterized in that, a hold open feature integrally formed from the side wall is configured to maintain the cover in the open position, wherein the hold open feature is a gate through which the hinge must pass when the cover is moved from one of the open or closed positions to the other of the open or closed positions. a boot having a side wall defining an opening for accessing the electrical connection; a cover attached to the side wall by a hinge such that the cover can be selectively moved between a closed position preventing access to the enclosed electrical conductors and an open position permitting access to the enclosed electrical conductors; a cover securing means preventing the cover from being unintentionally moved from the closed position to the open position; and a boot securing means for preventing the boot from being removed from the electrical conductors, wherein the boot and the hinge are formed from a pliable electrically insulating material, and wherein the hinge is an integral part of the side wall and cover, characterized in that, a hold open feature integrally formed from the side wall is configured to maintain the cover in the open position, wherein the hold open feature is a gate through which the hinge must pass when the cover is moved from one of the open or closed positions to the other of the open or closed positions.