mhurhangee/ep-ind-claims huggingface dataset:
An energy saving process for making whole grain flour, comprising continuously and repeatedly performing the following steps: - providing a cleaned whole cereal grain kernel including endosperm, germ and bran components; - spraying the cleaned whole cereal grain with a water containing a solute to uniformly wet the grain kernel surface, said solute being a salt or a sugar; - preconditioning the wet grain kernel to effect a moisture adsorption to within a predetermined range; - blanching the moisturized preconditioned grain kernel in an atmosphere of saturated steam to at least partially gelatinize and denature the grain kernel components and to hydrate with steam condensate the blanched grain kernel; - conditioning the blanched and hydrated grain kernel to stabilize the grain kernel to a desired moisture content; - milling the conditioned grain kernel by to yield a bimodal mixture of a coarse-grind material and a fine-grind material; - hot-air drying the milled material, and cooling the material; - screening and classifying the cooled material to separate and recover a fine milled material of size from 63 microns to under 355 microns (under 45 US mesh to 230 US mesh) as a whole grain flour, and to separate a coarse milled material of greater than 355 microns (45 US mesh). - providing a cleaned whole cereal grain kernel including endosperm, germ and bran components; - spraying the cleaned whole cereal grain with a water containing a solute to uniformly wet the grain kernel surface, said solute being a salt or a sugar; - preconditioning the wet grain kernel to effect a moisture adsorption to within a predetermined range; - blanching the moisturized preconditioned grain kernel in an atmosphere of saturated steam to at least partially gelatinize and denature the grain kernel components and to hydrate with steam condensate the blanched grain kernel; - conditioning the blanched and hydrated grain kernel to stabilize the grain kernel to a desired moisture content; - milling the conditioned grain kernel by to yield a bimodal mixture of a coarse-grind material and a fine-grind material; - hot-air drying the milled material, and cooling the material; - screening and classifying the cooled material to separate and recover a fine milled material of size from 63 microns to under 355 microns (under 45 US mesh to 230 US mesh) as a whole grain flour, and to separate a coarse milled material of greater than 355 microns (45 US mesh).
A system for detecting a falling conductor of an overhead power circuit of an overhead electrical power transmission or distribution system comprising one or more switching devices, an electrical measurement device, a communication device, and a control device; characterized in that: the electrical measurement device is in electrical communication with the conductor to measure an electrical characteristic of the conductor at a location in the power transmission or distribution system to determine whether the measured electrical characteristic is indicative of the conductor separating and falling from the overhead power circuit of the power transmission or distribution system; the communication device is configured for sending a signature indicative of the conductor separating and falling from the overhead power circuit of the power transmission or distribution system to the control device; and wherein the control device is programmed to send a signal to activate the one or more switching devices to deenergize the falling conductor in a time before the conductor contacts a ground surface. the electrical measurement device is in electrical communication with the conductor to measure an electrical characteristic of the conductor at a location in the power transmission or distribution system to determine whether the measured electrical characteristic is indicative of the conductor separating and falling from the overhead power circuit of the power transmission or distribution system; the communication device is configured for sending a signature indicative of the conductor separating and falling from the overhead power circuit of the power transmission or distribution system to the control device; and wherein the control device is programmed to send a signal to activate the one or more switching devices to deenergize the falling conductor in a time before the conductor contacts a ground surface.
A cooking device comprising: a main body casing (2, 72, 91) having a top face part (2A, 72A, 91A) and an opening part, and a control panel (7, 77, 87) on a top part of the opening part, the control panel (7, 77, 87) having a top face part (7A, 77A, 87A) that is connected to the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and having electric components inside, wherein one top face part (2A, 77A) of the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and the top face part (7A, 77A, 87A) of the control panel (7, 77, 87) has an outer edge part (11, 78) that extends to just over an outer edge part (8, 71, 88, 94) of the other top face part (7A, 72A, 87A, 91A) of the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and the top face part (7A, 77A, 87A) of the control panel (7, 77, 87), wherein the outer edge part (11, 78) of the one top face part (2A, 77A) includes a water droplet dropping part (12, 82) bent downward, and wherein the outer edge part (8, 71, 88, 94) of the other top face part (7A, 72A, 87A, 91A) has a water droplet penetration preventing part (10, 80, 90, 93) that prevents flow of water droplets dropped from the water droplet dropping part (12, 82) toward the one top face part (2A, 77A). a main body casing (2, 72, 91) having a top face part (2A, 72A, 91A) and an opening part, and a control panel (7, 77, 87) on a top part of the opening part, the control panel (7, 77, 87) having a top face part (7A, 77A, 87A) that is connected to the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and having electric components inside, wherein one top face part (2A, 77A) of the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and the top face part (7A, 77A, 87A) of the control panel (7, 77, 87) has an outer edge part (11, 78) that extends to just over an outer edge part (8, 71, 88, 94) of the other top face part (7A, 72A, 87A, 91A) of the top face part (2A, 72A, 91A) of the main body casing (2, 72, 91) and the top face part (7A, 77A, 87A) of the control panel (7, 77, 87), wherein the outer edge part (11, 78) of the one top face part (2A, 77A) includes a water droplet dropping part (12, 82) bent downward, and wherein the outer edge part (8, 71, 88, 94) of the other top face part (7A, 72A, 87A, 91A) has a water droplet penetration preventing part (10, 80, 90, 93) that prevents flow of water droplets dropped from the water droplet dropping part (12, 82) toward the one top face part (2A, 77A).
An engine generator having: an engine; a generator driven by the engine; a converter arranged to convert an AC current generated by the generator into a DC current, a throttle controlling means for controlling the throttle opening in the engine so that the output voltage of the generator converges to a predetermined target value; an inverter comprising a FET bridge circuit that is operable to convert the DC current from the converter into a second AC current; a FET driver arranged to switch FETs in the FET bridge circuit of the inverter; and characterised by a control unit configured to store output voltage settings in association with respective throttle opening values, and to control the FET driver to switch the FETs in accordance with an output voltage setting corresponding to a received throttle opening value such that, when the throttle opening control comes into an output voltage decreasing range, which corresponds to a predetermined scale of the opening that is within a controllable range of the throttle opening, the output voltage of the generator is made to decrease. an engine; a generator driven by the engine; a converter arranged to convert an AC current generated by the generator into a DC current, a throttle controlling means for controlling the throttle opening in the engine so that the output voltage of the generator converges to a predetermined target value; an inverter comprising a FET bridge circuit that is operable to convert the DC current from the converter into a second AC current; a FET driver arranged to switch FETs in the FET bridge circuit of the inverter; and characterised by a control unit configured to store output voltage settings in association with respective throttle opening values, and to control the FET driver to switch the FETs in accordance with an output voltage setting corresponding to a received throttle opening value such that, when the throttle opening control comes into an output voltage decreasing range, which corresponds to a predetermined scale of the opening that is within a controllable range of the throttle opening, the output voltage of the generator is made to decrease.
A device for performing component and material tests on samples having two sample retainers (1, 2) disposed so as to face each other between which a force for loading the sample disposed therebetween can be generated, wherein the one sample retainer is fixedly disposed on a base frame, and the other sample retainer is disposed on a movable positioning element, further comprising a travel sensor detecting a travelling path of the sample retainer as well as a force sensor detecting the force applied to the sample and disposed on the movable positioning element, and a measuring sensor of the travel sensor connected to the movable part of the force sensor, characterised in that the measuring axis of the travel sensor and the axis of the force vector of the force introduced to the sample via the force sensor are aligned with a distance to be measured by the travel sensor.
A method for producing a diffusion-optimised mouthpiece lining paper of smoking goods, in particular filter cigarettes, by perforating the web of the mouthpiece lining paper for the purpose of maximum reduction of carbon monoxide, characterised in that the diffusivity and permeability P of the perforated mouthpiece lining paper are determined in-line and the diffusivity is maximized by controlling the perforation parameters while maintaining the predetermined target permeability P target.
A terminal structure comprising: a terminal having a conductor containing at least one metal selected from the group consisting of gold, silver, and copper, a first layer containing phosphorus and nickel disposed on the conductor, and a second layer having a nickel/phosphorus atomic ratio smaller than that of the first layer and containing Ni 3 P disposed on the first layer; a third layer containing (Cu, Ni) 6 Sn 5 on the second layer and being a plating film formed by performing electroless nickel plating, electroless palladium plating, and electroless gold plating in this order, and then heating the plating film together with a solder disposed on the third layer of the terminal; wherein the second layer has a thickness of 0.4 to 1.0 μm and the third layer has a thickness of 1.5 to 2.5 μm. a terminal having a conductor containing at least one metal selected from the group consisting of gold, silver, and copper, a first layer containing phosphorus and nickel disposed on the conductor, and a second layer having a nickel/phosphorus atomic ratio smaller than that of the first layer and containing Ni 3 P disposed on the first layer; a third layer containing (Cu, Ni) 6 Sn 5 on the second layer and being a plating film formed by performing electroless nickel plating, electroless palladium plating, and electroless gold plating in this order, and then heating the plating film together with a solder disposed on the third layer of the terminal; wherein the second layer has a thickness of 0.4 to 1.0 μm and the third layer has a thickness of 1.5 to 2.5 μm.
A nickel particle composition, comprising the following component A to component C: A) a nickel particle having an average particle size in a range of 0.5 μm to 20 μm obtained via a laser diffraction/scattering method and containing 50 wt% or more of a nickel element; B) a nickel fine particle having an average primary particle size in a range of 30 nm to 200 nm observed via a scanning electron microscope and containing 50 wt% or more of the nickel element; and C) an organic binder in a range of 0.1 wt% to 2.5 wt% relative to a total metal content; and a weight ratio of the component A to the component B (component A: component B) is in a range of 30:70 to 70:30. A) a nickel particle having an average particle size in a range of 0.5 μm to 20 μm obtained via a laser diffraction/scattering method and containing 50 wt% or more of a nickel element; B) a nickel fine particle having an average primary particle size in a range of 30 nm to 200 nm observed via a scanning electron microscope and containing 50 wt% or more of the nickel element; and C) an organic binder in a range of 0.1 wt% to 2.5 wt% relative to a total metal content; and
A railroad vehicle, comprising: an electric power conversion device located at the roof level of the railroad vehicle, a cooling circuit comprising a fluid, which is thermally connected to the electric power-conversion device and comprises at least one heat-exchanger (20, 21) for dissipating thermal energy from the electric power-conversion device to surrounding air, wherein a first side wall (30, 31) of the railroad vehicle comprises at least one inlet opening (40, 41, 45, 46, 47, 48) and a second side wall (30, 31) opposite to the first side wall (30, 31) comprises at least another inlet opening (40, 41, 45, 46, 47, 48), wherein at least one outlet opening (40, 41, 45, 46, 47, 48) is located in a region upwards from the electric power conversion device, and wherein the at least one heat exchanger (20, 21) is arranged to be cooled by an air flow through at least one of the inlet openings (40, 41, 45, 46, 47, 48) caused by a movement of the railroad vehicle, wherein the at least one heat exchanger (20, 21) and at least one of the inlet openings (40, 41, 45, 46, 47, 48) are located at a roof level of the railroad vehicle. an electric power conversion device located at the roof level of the railroad vehicle, a cooling circuit comprising a fluid, which is thermally connected to the electric power-conversion device and comprises at least one heat-exchanger (20, 21) for dissipating thermal energy from the electric power-conversion device to surrounding air, wherein a first side wall (30, 31) of the railroad vehicle comprises at least one inlet opening (40, 41, 45, 46, 47, 48) and a second side wall (30, 31) opposite to the first side wall (30, 31) comprises at least another inlet opening (40, 41, 45, 46, 47, 48), wherein at least one outlet opening (40, 41, 45, 46, 47, 48) is located in a region upwards from the electric power conversion device, and wherein the at least one heat exchanger (20, 21) is arranged to be cooled by an air flow through at least one of the inlet openings (40, 41, 45, 46, 47, 48) caused by a movement of the railroad vehicle, wherein the at least one heat exchanger (20, 21) and at least one of the inlet openings (40, 41, 45, 46, 47, 48) are located at a roof level of the railroad vehicle.
A method for wireless communications by a user equipment, UE, comprising: receiving a downlink control channel carrying a slot format indicator, SFI (703, 705, 707, 803), that indicates whether one or more symbols in a least a current slot are for uplink or for downlink; and characterized by: determining a scheduled transmission that conflicts with the SFI; determining a direction of the one or more symbols as uplink or downlink based on the received SFI or based on a direction of the scheduled transmission; and transmitting or receiving in the one or more symbols based on the determined direction for the one or more symbols. receiving a downlink control channel carrying a slot format indicator, SFI (703, 705, 707, 803), that indicates whether one or more symbols in a least a current slot are for uplink or for downlink; and characterized by: determining a scheduled transmission that conflicts with the SFI; determining a direction of the one or more symbols as uplink or downlink based on the received SFI or based on a direction of the scheduled transmission; and transmitting or receiving in the one or more symbols based on the determined direction for the one or more symbols.
Floor panel for outdoor use, comprising a carrier plate with a front side and rear side, wherein the carrier plate is provided on its front side with a decorative layer respectively a protective layer and has at its sides coupling means in the form of groove and tongue elements, which allow connecting multiple similar panels in directions parallel to the front side as well as perpendicular to the front side by form fit, characterized in that the material of the carrier plate is chosen from the group consisting of: • MDF or HDF-board of acetylated wood; • Fiber cement board; • Polyvinylchloride; and the decorative respectively protective layer is a polymeric layer having a hardness gradient, wherein the hardness of the polymeric layer decreases essentially continuously with increasing depth as seen from the surface of the polymeric layer and the wherein front side of the carrier plate is provided with an undercoat, which is based on an aqueous acrylate-system, under the polymeric layer. • MDF or HDF-board of acetylated wood; • Fiber cement board; • Polyvinylchloride;
A cooling device for an electronic component, comprising: an element package having a rectangular shape, accommodating an electronic component that generates heat and including a heat radiation surface that is configured to radiate the heat generated by the electronic component; a terminal pin extending from a side surface of the element package; a main heat sink including a heat radiation section having a plurality of heat radiation fins arranged in a standing manner, and a flat heat absorption surface positioned on a side opposite to the side of the heat radiation section as a side on which the element package is mounted; and a sub-heat sink which is provided between the element package and the main heat sink and has a shape in which an upper stage and a lower stage are integrally formed into a stepwise shape in cross-section, the upper stage having an upper surface in contact with and fixed to the heat radiation surface of the element package and the lower stage having a lower surface in contact with and fixed to the heat absorption surface of the main heat sink, wherein an end portion of the upper surface of the upper stage and an upper surface of the lower stage in the stepwise shape in the sub-heat sink are respectively positioned apart from the terminal pin by a predetermined distance (X, Y). an element package having a rectangular shape, accommodating an electronic component that generates heat and including a heat radiation surface that is configured to radiate the heat generated by the electronic component; a terminal pin extending from a side surface of the element package; a main heat sink including a heat radiation section having a plurality of heat radiation fins arranged in a standing manner, and a flat heat absorption surface positioned on a side opposite to the side of the heat radiation section as a side on which the element package is mounted; and a sub-heat sink which is provided between the element package and the main heat sink and has a shape in which an upper stage and a lower stage are integrally formed into a stepwise shape in cross-section, the upper stage having an upper surface in contact with and fixed to the heat radiation surface of the element package and the lower stage having a lower surface in contact with and fixed to the heat absorption surface of the main heat sink, wherein an end portion of the upper surface of the upper stage and an upper surface of the lower stage in the stepwise shape in the sub-heat sink are respectively positioned apart from the terminal pin by a predetermined distance (X, Y).
An elevator door interlock, comprising: a first base configured to be supported on a hoistway door component, the first base being situated to be selectively pivoted relative to the hoistway door component; a first bumper supported on the first base such that pivotal movement of the first base changes a position of the first bumper relative to the hoistway door component; a second base situated to be selectively moved relative to the hoistway door component; a second bumper supported on the second base such that selective movement of the second base changes a position of the second bumper relative to the hoistway door component; and a latch situated for pivotal movement about a pivot axis relative to the first base between a door locking position and a released position, characterized in that the first base is selectively pivoted about the pivot axis. a first base configured to be supported on a hoistway door component, the first base being situated to be selectively pivoted relative to the hoistway door component; a first bumper supported on the first base such that pivotal movement of the first base changes a position of the first bumper relative to the hoistway door component; a second base situated to be selectively moved relative to the hoistway door component; a second bumper supported on the second base such that selective movement of the second base changes a position of the second bumper relative to the hoistway door component; and a latch situated for pivotal movement about a pivot axis relative to the first base between a door locking position and a released position, characterized in that the first base is selectively pivoted about the pivot axis.