Ormat Industries Ltd.

Other

Ormat Technologies, Inc.

Ormat Process Technologies, Inc.

Siemens Industry, Inc.

Etm Electromatic, Inc.

Philip B Rettger

Robert Matthew Panas

Lucien Y Bronicki

Chad L Felch

Benjamin Doron

Joseph Sinai

Richard L Hood

Randall S Goldstein

J Robert Friday

Yoram Bronicki

Jonathan David Harrington

Jim Arnold

Matthew Offenbacher

Cynthia Panas

Ilan Benguigui

Marvin S Keshner

Bruce L Brandenburg

Curtis D Cooley

Timothy J Schleusner

Jackson Moore

Mark Allen Clark

Bryan Kumfer

Bodo W Littmmann

Alexandra Katrina Pligavko

An orbital computation engine is used to provide ancillary computational data processing on an orbital vehicle and is mounted to or integral with the orbital vehicle. A computation circuit receives power from the orbital vehicle and is responsive to power availability from the orbital vehicle to selectively withdraw power for data processing from the orbital vehicle. A communication circuit provides communication with a terrestrial source, and may be a discrete circuit or integrated with the host satellite's communication system. The computation engine withdraws power for data processing from the orbital vehicle and provides the orbital computation engine with available power for ancillary computational data processing from the orbital computation engine's native power supply.

Space-based data processing using available energy

An airborne computational facility uses an energy collection system to provide energy for operation. An airborne balloon is provided with a photovoltaic collector array, and uses energy generated by the photovoltaic collector array to power an on-board computational facility. Data for computation is received by a communication module and computational results are transmitted by the communication module.

Airborne data farming

An energy collection system uses one or more airborne energy collection vehicles having a lighter-than-air balloon structure. The balloon structure has an outer gas envelope formed of a substantially inelastic material and an inner gas envelope at least partially separate from the outer gas envelope, contained within the outer gas envelope and separated from the outer gas envelope by a flexible diaphragm. The space between the outer and inner gas envelopes is filled with air. An air chamber pressurization mechanism maintains the outer gas envelope gas pressure at a target value. An energy storage facility receives energy from a photovoltaic collector array and converts the received energy to stored energy. Storage of the received energy can be accomplished by conversion of a precursor to a high energy fuel as the stored energy, by use of storage batteries or by storage in an inertial mass.

Airborne renewable energy generation and storage

A heliostat includes a heliostat frame and a plurality of reflective surfaces, each reflective surface is movably mounted within the heliostat frame. The heliostat also includes a plurality of actuators, wherein each individual actuator of the plurality of actuators is associated with a single reflective surface of the plurality reflective surfaces and capable of moving the single reflective surface.

Heliostat system and method of using same

A power source affected by a geographically propagating condition (e.g. a weather-related condition) is monitored to detect changes in its power output. Characteristics of the monitored changes are analyzed to detect whether the changes are being caused by a geographically-propagating condition that could affect other power sources nearby. The information obtained from the measurements is used to extrapolate impending power-output changes in the same source, in one or more other sources, or in a collection of sources subject to effects of the propagating condition. The extrapolations enable one or more power generating systems associated with the source(s) to maintain the changes in its total power output within operating requirements.

Local power tracking for dynamic power management in weather-sensitive power systems

A system and method for the treatment of soot containing an insoluble metal. The soot is formed into a soot slurry and a characteristic of the soot slurry is maintained to solubilize at least a portion of the metal to act as a catalyst. The soot slurry with the soluble metal is wet oxidized.

Wet oxidation of soot

A novel apparatus for producing sweet synthetic crude from a heavy hydrocarbon feed includes: an upgrader for receiving the heavy hydrocarbon feed and producing a distillate fraction including sour products, and high-carbon content by-products; a gasifier for receiving the high-carbon content by-products and producing synthetic fuel gas and sour by-products; a hydroprocessing unit for receiving the sour by-products and hydrogen gas, thereby producing gas and sweet crude; and a hydrogen recovery unit for receiving the synthetic fuel gas and producing further hydrogen gas and hydrogen-depleted synthetic fuel gas, the further hydrogen gas being supplied to the hydroprocessing unit.

Method of and apparatus for upgrading and gasifying heavy hydrocarbon feeds

Apparatus for producing pellets from hot heavy hydrocarbon or asphaltene, in accordance with the present invention, includes flow means that supplies the hot heavy hydrocarbon or asphaltene through a conduit to its outlet; and pellet producing medium or means that breaks up the liquid stream of the hot asphaltene flowing out of the outlet of the conduit and produces pellets of asphaltene. Furthermore, the apparatus includes a reservoir or container that collects the pellets of heavy hydrocarbon or asphaltene together with some fluid producing a slurry; and transporting means that transports the slurry to the required location. Preferably, the fluid is liquid water. In addition, the pellet producing medium preferably is liquid water.

Method of and apparatus for producing pellets from heavy hydrocarbon liquid

A novel apparatus for producing sweet synthetic crude from a heavy hydrocarbon feed comprising: an upgrader for receiving said heavy hydrocarbon feed and producing a distillate fraction including sour products, and high-carbon content by-products; a gasifier for receiving the high-carbon content by-products and producing synthetic fuel gas and sour by-products; a hydroprocessing unit for receiving the sour by-products and hydrogen gas, thereby producing gas and sweet crude; and a hydrogen recovery unit for receiving said synthetic fuel gas and producing further hydrogen gas and hydrogen-depleted synthetic fuel gas, said further hydrogen gas being supplied to said hydroprocessing unit.

Apparatus for upgrading hydrocarbon feeds containing sulfur, metals, and asphaltenes

Upgrading of a hydrocarbon feed containing sulfur, metals, and asphaltenes involves applying the feed to a distillation column for producing a substantially asphaltene-free, and metal-free distillate fraction and a non-distilled fraction containing sulfur, asphaltenes, and metals. At least some of the substantially asphaltene-free, and metal-free distillate fraction is converted to a hydrogen donor diluent. The non-distilled fraction is processed in a solvent deasphalting unit for producing a deasphalted oil stream and an asphaltene stream. After a combined stream is formed from the hydrogen donor diluent and the deasphalted oil stream, the combined stream is thermally cracked forming a thermally cracked stream that is applied to the distillation column.

Process and apparatus for upgrading hydrocarbon feeds containing sulfur, metals, and asphaltenes

An evaporative solvent recovery section operates on a plurality of liquid product streams including a liquid stream of deasphalted oil and solvent, and a liquid stream of asphaltene and solvent produced by a solvent deasphalting unit. Heat is added to one of the streams for producing a heated liquid product stream that is flashed to produce a stream of vaporized solvent, and a stream of reduced solvent liquid product. The stream of reduced solvent liquid product is further processed, without the addition of a significant amount of heat, to vaporize substantially all of the remaining solvent therein, and heat contained in the stream of vaporized solvent is recovered by expanding the stream in a vapor turbine.

Solvent deasphalting unit and method for using the same

A feed stream of asphaltene-containing residual oil is processed by contacting the feed stream with a solvent to form a first primary liquid stream containing deasphalted oil (DAO) and some solvent, and a second primary liquid stream containing asphaltene and some solvent. The first and second liquid streams are heated; and the heated streams are respectively processed to recover the solvent and to produce a DAO product stream substantially free of solvent, and an asphaltene product stream substantially free of solvent. A portion of the DAO product stream is heated to produce a stream of heated DAO, a portion of which indirectly heats the two primary liquid streams.

Apparatus for solvent-deasphalting residual oil containing asphaltenes

Apparatus for separating solvent in a feed of solvent and deasphalted oil produced in a deasphalting process includes a feed line for receiving the feed and constructed and arranged to produce a stream of fluid containing supercritical solvent and deasphalted oil. A substantially horizontally disposed inlet line receives the stream of fluid and is designed to effect two phase laminar flow at the outlet of the inlet line. The two phase laminar flow has a substantially horizontally disposed interface that divides the stream into an upper part containing the lighter supercritical solvent which floats on a lower part containing the heavier deasphalted oil.

Apparatus for separating solvent in a feed of solvent and deasphalted oil

Power is generated in an organic Rankine cycle turbine by expanding a stream of solvent vapor produced by a flash drum in a deasphalting unit to produce a stream of expanded solvent vapor that is combined with a stream of solvent vapor and steam from a stripper of the deasphalting unit. Heat is extracted from the combined stream by an organic fluid that is vaporized and supplied to a Rankine cycle organic vapor turbine that produces power and expanded organic vapor. The solvent is recovered from the cooled, combined stream and re-used in the deasphalting unit. Heat extracted from products of the deasphalting unit vaporizes an organic fluid that is expanded in an organic vapor turbine that generates power.

Growing community of inventors

Walnut Creek, CA, United States of America

Philip B Rettger