Knappco Corporation

Other

F.d. Richardson Enterprises, Inc.

F. D. Richardson Entereprises, Inc.

Richard Lee Henderson

Mark William Dudley

Russell W Sherwood

John A Fox

Francis D Richardson

Francis V Stemporzewski, Jr

Randy Donald Robinson

Steven D Gramling

Jeffrey Joseph Blair

Erik Paul Bjornebo

A product delivery system includes a product transport vehicle having at least a plurality of tank compartments, internal valves, control valves, fluid property sensors, temperature sensors, overfill sensors, pressure sensors, a system controller, and a memory module. The product delivery system may be operable to communicatively connect with the loading system at a loading station, a fleet management system, or a cloud system to obtain information, such as the amount of liquid product to be loaded into a tank compartment. The product delivery system may be operable to compare the volumes of the tank compartments with the amounts of liquid product to be loaded at a loading station and maintain the internal valve or control valve in a locked state or transition the internal valve or control valve to an unlocked state based on the comparison. Other comparisons based on liquid type or distribution tank volume can also be made.

Product delivery systems for liquid product transport vehicles and methods of loading liquid products using the same

An optical fluid sensor (OFS) is disclosed that includes a body defining a chamber and having one or more apertures to allow a fluid to enter the chamber, a light source optically coupled to the chamber and configured to emit light into the chamber, and a detector optically coupled to the chamber and configured to receive light from the chamber. The light source may emit IR, visible, and UV light into the chamber, and the detector may measure an intensity of one or more wavelengths of IR or visible light received by the detector. When fluid is disposed within the chamber, the light emitted by the light source may pass into and through the fluid disposed in the chamber before being received by the detector. A crossover protection system is also disclosed that includes an OFS for determining a transported liquid type.

Optical fluid sensors for cross contamination control systems

An apparatus provides supplemental power to an engine. The apparatus includes a pair of conductive leads for connecting the supplemental power to an engine electrical system, one or more batteries connected in parallel with one or more capacitors, a relay connected to the conductive leads, a shunt cable connecting the batteries and capacitors to the relay and a switch for controlling the relay to selectively apply electrical power to the engine electrical system. The apparatus includes safety features to reduce the risk of injury to the operator and damage to the apparatus and/or engine electrical system.

Method and apparatus for providing supplemental power to an engine

A method and apparatus provides supplemental power to an engine. The method and apparatus includes a pair of conductive leads for connecting the supplemental power to an engine electrical system, one or more batteries connected in parallel with one or more capacitors, a relay connected to the conductive leads, a shunt cable connecting the batteries and capacitors to the relay and a processor for controlling the relay to selectively apply electrical power to the engine electrical system. The method and apparatus includes safety features to reduce the risk of injury to the operator and damage to the apparatus and/or engine electrical system.

A method and apparatus provides supplemental power to an engine. The method and apparatus includes a pair of conductive leads for connecting the supplemental power to an engine electrical system, a battery, a relay connected to the conductive leads, a shunt cable connecting the battery to the relay and a processor for controlling the relay to selectively apply electrical power to the engine electrical system. The method and apparatus includes safety features to reduce the risk of injury to the operator and damage to the apparatus and/or engine electrical system.

A solar energy conversion and distillation apparatus floats on a body of saltwater and includes a matrix of buoyant distillation modules that produce and collect distilled water for on-shore usage. The distillation modules and other buoyant structures are mutually joined within a peripheral seawall to form an atmospheric barrier, and each distillation module includes a submerged energy absorber layer to form an energy conversion chamber that confines a shallow volume of solar-heated seawater. Water vapor in the air above the confined water condenses on chilled heat exchanger conduits, and the energy absorber layer is water permeable so that confined water lost to evaporation and condensation is replenished with water from a thermal reservoir underlying the energy conversion chamber. Buoyant mistifier units in each distillation module enhance the evaporative surface area of the water vapor subject to condensation.

Floating solar energy conversion and water distillation apparatus

A horizontal structure defines an expansive floating solar pond underlain by an open-ended chamber, and a distributed network of heat engines produce electricity based on the temperature differential between the heated solar pond water and ambient seawater. Each heat engine includes a heat exchanger disposed near the bottom of the solar pond, a working fluid boiler at least partially submerged in the solar pond, a turbine-generator, and a working vapor condenser disposed under the solar pond in the open-ended chamber. A heat exchange fluid is circulated through the heat exchanger and the boiler to vaporize working fluid for powering the turbine-generator, and cold ambient seawater is passed through the condenser to condense working vapor downstream of the turbine-generator. Warmed seawater from the condenser is exhausted into the open-ended chamber, where it is naturally retained by convection to minimize heat transfer from the solar pond to the ambient seawater.

Floating solar pond energy conversion apparatus

Ceramic tile

A solar energy conversion and storage apparatus floats on a body of water and confines and stores a large quantity of solar-heated water for producing electricity with a closed-cycle heat engine. An expansive horizontal structure parallel to the surface of the water confines one or more horizontal layers of water, a distributed array of heat transfer structures gathers solar energy and imparts it to the confined water, and one or more heat engines produce electricity utilizing the temperature differential between the confined water and ambient water. The heat transfer structures can be configured to transfer solar energy to the confined water using a convective process; and some or all of the heat transfer structures can be configured to transfer solar energy to the stored water using a distillation process that optionally produces distilled water as a by-product.

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Leawood, KS, United States of America

Richard Lee Henderson