Abstract: A system, method and computer readable media are disclosed for providing a hydraulic system for a vehicle. The system includes at least one accumulator for storing hydraulic fluid and may also include a flywheel or other storage mechanism for storing energy. Energy may be stored either in one of the accumulators or the flywheel. A control system controls fluid flow to and from the at least one accumulator and, if included, the flow of energy to and from the flywheel such that: in a steady state mode, a first hydraulic pump/motor is energized by an engine to cause hydraulic fluid to flow and actuate a drive line attached to a second hydraulic pump/motor; in a deceleration mode, the second pump/motor is operates as a pump to transfer energy to the at least one flywheel and/or accumulator; and in an acceleration mode, energy is transferred from the at least one flywheel and/or accumulator to the second hydraulic pump/motor to actuate the driveline and accelerate the vehicle.

Abstract: A cooling structure for the body of a crystal-growing furnace includes an upper body and a lower body. The upper body includes an outer upper shell and an inner upper shell, wherein an upper enclosing space is formed between the outer upper shell and the inner upper shell. The lower body includes an outer lower shell and an inner lower shell, wherein a lower enclosing space is formed between the outer lower shell and the inner lower shell. A plurality of water pipes are arranged, respectively, around the upper and the lower enclosing spaces, wherein plural spraying holes are provided on each of the water pipes. With the help of a pump, water from an outside water source is drawn through the spraying holes of the water pipes so as to cool down the body of the crystal-growing furnace. In adding an exhaust fan, warm air in the upper enclosing spaces can be driven out speedily.

Abstract: The present invention is broadly directed to non-thermal plasma-based systems for reducing the amount of particulate matter in a gas stream, as well as to methods for using such systems. The present invention is particularly directed to such non-thermal plasma-based particulate matter reduction systems with self-cleaning surfaces. Particularly contemplated are self-cleaning surfaces that reduce particulate matter buildup such as is likely to cause the reduction of non-thermal plasma production in the system, and therefore the ability of such systems to reduce the amount of particulate matter in the gas stream.

Abstract: An electrode anchoring structure in a crystal-growing furnace includes at least one graphite electrode pillar, at least one metal electrode pillar, at least one anchoring base, and at least one locking nut, wherein the graphite electrode pillar is engaged with a nut base of the metal electrode pillar, and the at least one metal electrode pillar is, through the anchoring base, is secured to furnace wall. Therefore, the at least one graphite electrode pillar acts both as weight support and electrical-conducting electrode. Since the flange welded on furnace wall has a greater area exposed to the atmosphere, a desirable cooling effect can be achieved, and temperature drop can be expedited if water spray is performed. The anchoring base is provided with a resilient washer, such that a resilient force can be employed to adjust loading of each graphite electrode pillar in an axial direction.

Abstract: Disclosed is a tractor-trailer including a tractor having a lower tractor duct that receives first air from a front of the tractor and channels the first air through a center area of the tractor and down between a set of rear wheels, a trailer having a lower trailer duct positioned below a cargo space and that channels the first air in the lower trailer duct between each set of trailer rear wheels and a lower articulation duct positioned near the set of rear wheels in the tractor that receives air from the lower tractor duct and communicates air to the lower trailer duct. An upper duct is also provided with an articulation duct that channels air through a ductwork at the top of the trailer and tractor. A louver system at the rear of the trailer enables the air in each duct to be channeled and pulled out of the respective duct in such a manner as to reduce drag and eddy currents using the vacuum at the rear of the trailer.

Abstract: A crystal-growing furnace system with an emergent pressure-release arrangement includes an isolated chamber and a furnace upper body. The top board is provided with an opening and three first guides, and the furnace upper body with a lower opening and three second guides, wherein the lower opening of the furnace upper body covers, correspondingly, on the opening of the top board. In case a crystal-growing furnace, combined oppositely by the furnace upper body and the furnace lower body, has an over-high internal pressure, the pressure will overcome the weight of, and lift up the furnace upper body. At this moment, the furnace upper body will slightly move upward and away from enclosing the furnace lower body, so that the over-high internal pressure in the furnace will be released immediately to prevent the furnace from being exploded and from resulting in public accidents.

Abstract: A crystal-growing furnace system includes an isolated chamber, a furnace upper body, and a controller room, wherein the isolated chamber and the controller room are arrayed and isolated from each other. A door is provided between the controller room and the isolated chamber so as to isolate or communicate the controller room from or with the isolated chamber. The isolated chamber includes, among others, a top board, a furnace lower body, and a lifting device, wherein the lifting device moves the furnace lower body upward and closes the furnace upper body so as to form an enclosed crystal-growing furnace, or downward and departs from the furnace upper body. Because the isolated chamber and the controller room are arranged isolating from each other, noise, high temperature, and dust pollution can be isolated from the isolated room, so that personnel working in the controller room can be assured of safety and health.

Abstract: A crystal-growing furnace with a heating improvement structure includes a furnace body, a supporting table, a top heater, and a bottom heater. When the silicon material around the top heater is melted, molten silicon slurry will flow directly into the spacing among particles of the silicon material. This will expedite internal part of the silicon material to absorb energy. As a result, a desirable cycle will be established to expedite melting the whole silicon material in the crucible. The crucible is heated at the bottom thereof by the bottom heater directly so as to enhance efficiency in melting the silicon material in the crucible, and to save energy and time consumed by the crystal-growing furnace. Further, since both of the top and the bottom heaters are symmetrical with one another, the crucible can be heated uniformly. This not only saves energy and makes the heating job convenient, but also saves cost in manufacture.

Abstract: A cooling structure for the body of a crystal-growing furnace includes an upper body and a lower body. The upper body includes an outer upper shell and an inner upper shell, wherein an upper enclosing space is formed between the outer upper shell and the inner upper shell. The lower body includes an outer lower shell and an inner lower shell, wherein a lower enclosing space is formed between the outer lower shell and the inner lower shell. A plurality of water pipes are arranged, respectively, around the upper and the lower enclosing spaces, wherein plural spraying holes are provided on each of the water pipes. With the help of a pump, water from an outside water source is drawn through the spraying holes of the water pipes so as to cool down the body of the crystal-growing furnace. In adding an exhaust fan, warm air in the upper enclosing spaces can be driven out speedily.

Abstract: A crystal-growing furnace having a slurry drainage duct structure includes a furnace body, a supporting table, a loading frame, a plurality of eaves elements, and a set of eaves gutters. The supporting table includes a table plate and a plurality of supporting posts. The loading frame includes a lower plate and four side plates, where four elongated eaves boards descend from sides of the lower plate. Four eaves gutters, having V-shaped grooves, are connected with one another and disposed beneath the four eaves elements correspondingly.

Abstract: A supporting table having heaters inside a crystal-growing furnace includes a table plate and a plurality of supporting posts, wherein the supporting posts support the table plate and are, respectively, electrically connected with the heaters. Each supporting post includes, among others, a graphite electrode post, a metal electrode post, and an anchoring base. The supporting posts are each with its graphite electrode post screwed to a nut portion of the metal electrode post, and with the metal electrode post fixed to a wall of the crystal-growing furnace. The anchoring base includes, among others, a flange and an elastic washer, where the flange is welded to the wall of the furnace, and with the help of elasticity adjustment of the elastic washer, the supporting table can bear an equal distribution of loading from the supporting posts.

Abstract: A crystal-growing furnace with a convectional cooling structure includes a furnace body, a heating room, and at least one heater. The heating room is accommodated in the furnace body, and includes an upper partition, a plurality of side partitions, and a lower partition. The upper partition is provided with an upper opening, and the lower partition with a central opening. Further, the heating room is provided with an upper door, a lower door, an upper driver, and a lower driver. When silicon slurry is to be cooled and solidified, cooling gaseous stream flows into a lower portion of the heating room through the central opening. Then the upper opening is opened by the upper door which is driven by the upper driver, so that heated gaseous stream is discharged from the upper opening and flows downward along furnace inside wall, and flows back to the heating room from the central opening.

Abstract: A light unit that includes an internal power supply that may be used in the event of an external power failure to provide power to the light unit. In one aspect, the present disclosure provides a lighting apparatus, comprising (a) a power input configured to receive external power from an external power source; (b) a solid state light element that is interconnected to the power input; and (c) a back-up power source that is interconnected to the solid state light element and the power input and that provides power to the solid state light element when the light element is not provided with power from the power input.

Abstract: A system is provided that draws heat from an open-loop engine cycle into a closed-loop working fluid circulatory system that utilizes computer-aided feedback mechanisms. The closed-loop working fluid draws engine heat from multiple sources: exhaust stack gases, the engine block, the engine transmission, and the engine headers and exhaust manifold near the valves. Heat exchangers are arranged in an ascending pattern according to the temperature of the heat at each heat generating location of the open-loop engine cycle. A wankel or similar type engine receives the heated working fluid and rotates a shaft connected to a generator to generate electricity. An electrolysis unit is powered by the generated electricity and separates water into hydrogen and oxygen. A reformation unit receives fuel such as diesel and the generated hydrogen to reform the fuel prior to injection into the engine for combustion.

Abstract: A wind energy systems includes a shroud for each turbine. The shroud is adapted to direct and accelerate wind towards the turbine. A strong adaptable support assembly is provided for securing turbines to a structure. An air glide yaw assembly facilitates rotational movement of the structure allowing the turbines to face oncoming wind. The turbine blades are optimized for use with a shroud.

Abstract: A wave energy device converts the motion of waves on a body of water into a usable form of energy, for example a flow of pressurized water or an electrical current. The device includes a buoyant body for tracking the rise and fall of the wave and a working surface coupled for movement with the buoyant body and which is designed to capture and convert both heave and surge forces of the waves. The device includes a rapid deployment and retrieval capability and a capability to rotate to accommodate changes in wave direction. The device is universally attached to the sea floor, which allows the device to pitch, yaw and roll with the wave forces from any direction, thereby reducing the likelihood of damage due to extreme weather or damage to or from marine traffic in the event of an encounter.

Abstract: A system and method for controlling distributed generation equipment based on remotely derived dispatch schemes improves economics and reliability of operation. The system can adapt to variable changing conditions in real-time to provide adaptable, real-time, site-specific load forecasting. The present invention can include one or more local site controller component(s) for receiving dispatch instructions and comparing the instructions to local information to further optimize operating instructions.

Abstract: A thermal solution for a portable electronic device, which is positioned between a heat source and another component of the electronic device, where the thermal solution facilitates heat dissipation from the heat source while shielding the second component from the heat generated by the heat source.

Abstract: A method and an apparatus for continuous real time heating value/coal flow balancing of coal from a coal feeder to a burner. The apparatus includes a dual-energy Gamma Attenuation (DGA)/multi-energy Gamma Attenuation (MGA) device for measuring coal quality at a specific location between the coal silo and the mill in a coal fired plant in order to control the individual burner stoichiometries according to the measured coal quality. By strategically placing the DGA/MGA device, continuous accurate real-time coal quality information is accomplished for making individual adjustments in order to improve stoichiometry to optimize performance of the system.

Abstract: A heat spreader (10) for a display device, such as a plasma display panel, a light emitting diode or a liquid crystal display, comprising at least one sheet of compressed particles of exfoliated graphite having a surface area greater than the surface area of that part of the back surface of the display device where a localized region of higher temperature is generated.