Abstract: The present invention is a system that utilizes high pressure gas (greater than ½ psig) to control flow rate and gas discharge velocity to enable interchangeability between a plurality of gases without having to change the gas/air mixing venturi size or air opening. A new approach is to use the available incoming higher gas pressure to the appliance then control the volumetric flow rate with the first orifice and then use a second orifice to change the velocity of discharge into the gas/air mixing venturi of the burner and therefore have adjustability of gas air mixing conditions without having to change the burner system or air flow control even when changing between very different fuel gases.

Abstract: The present invention is a system that utilizes high pressure gas (greater than ½ psig) to control flow rate and gas discharge velocity to enable interchangeability between a plurality of gases without having to change the gas/air mixing venturi size or air opening. A new approach is to use the available incoming higher gas pressure to the appliance then control the volumetric flow rate with the first orifice and then use a second orifice to change the velocity of discharge into the gas/air mixing venturi of the burner and therefore have adjustability of gas air mixing conditions without having to change the burner system or air flow control even when changing between very different fuel gases.

Abstract: The present invention is a system that utilizes high pressure gas (greater than ½ psig) to control flow rate and gas discharge velocity to enable interchangeability between a plurality of gases without having to change the gas/air mixing venturi size or air opening. A new approach is to use the available incoming higher gas pressure to the appliance then control the volumetric flow rate with the first orifice and then use a second orifice to change the velocity of discharge into the gas/air mixing venturi of the burner and therefore have adjustability of gas air mixing conditions without having to change the burner system or air flow control even when changing between very different fuel gases.

Abstract: The present invention is a system that utilizes high pressure gas (greater than ½ psig) to control flow rate and gas discharge velocity to enable interchangeability between a plurality of gases without having to change the gas/air mixing venturi size or air opening. A new approach is to use the available incoming higher gas pressure to the appliance then control the volumetric flow rate with the first orifice and then use a second orifice to change the velocity of discharge into the gas/air mixing venturi of the burner and therefore have adjustability of gas air mixing conditions without having to change the burner system or air flow control even when changing between very different fuel gases.

Abstract: The invention is directed to an infrared gas heater for a building, comprising: a first straight energy emitter tube; a U-shaped energy emitter tube connect to said first straight, energy emitter tube; a second straight, energy emitter tube having and end connected to said U-shaped energy emitter tube; a reflector system for reflecting heat energy toward the floor of a building; a frame having rollers mounted thereon, said rollers for supporting said first and second straight, energy emitter tubes; a gas heating source connected to the first straight, energy emitter tube at the end opposite the U-shaped energy emitter tube; and whereby the second straight, energy emitter tube at the end opposite the U-shaped energy emitter tube is a gas exhaust.

Abstract: A facility employs a zero pollution mechanical process for generating electrical energy. The facility basically includes at least one electrically powered drive unit, a main shaft that is driven by the drive unit, and an electrical generator powered by the main shaft. Most of the electrical energy generated by the generator is distributed to an electrical grid, though some of it may be diverted to the drive unit to power it.

Abstract: An electrical generation facility includes a drive unit and an electrical generation unit. The drive unit takes the form of a pump jack of the type commonly used to extract oil from oil fields. As such it has a walking beam to which a rocking motion is imparted by a motor. At its one end the beam has a head provided with a convex surface. The generation unit includes a stator provided with coils and an armature having magnets. The armature is coupled to the beam through a rod and a cable, the latter of which that passes over the convex surface of the head at the end of the beam. Thus, when the beam pivots back and forth the armature moves along the coils of the stator. The magnetic flux induces a current in the coils. The coils may be arranged in sets and a separate armature way exist for each set.

Abstract: An embossed article such as a plastic bowl is injection molded between the molding surfaces of an unidirectional mold. The outer molding surface is inclined outwardly from bottom to top and is provided with an engraved area in which the boss is formed. The undercut upper edge of the engraved area is slanted in a manner to provide an inclined lead in surface on the boss. The undercut of the lead in surface is slight enough that the boss is able to release from the engraved area without damage as the mold opens in unidirectional fashion for removal of the molded article.

Abstract: For a flower pot having a plurality of radially spaced holes in the bottom thereof, an interlocking saucer having a plurality of radially spaced fastener studs projecting from the bottom thereof. The fastener studs define a pot supporting plane located at least 0.1 inch (2.5mm) above the bottom of the saucer and include angled arms having a pot retaining side inclined at a greater angle than the opposite side of the arm. The fastener studs interlockingly fit with the corresponding holes of the flower pot to removably interconnect the saucer thereto.