Noise Cancellation Technologies, Inc.

Exotex, Inc.

Other

New Transducers Limited

Gtherm Energy, Inc.

Gtherm, Inc.

Nct Group, Inc.

Pardev, LLC

Menotti & Bannister, Limited Liability Company

Michael J Parrella

Nevil R Ede

Steven L Machacek

Graham P Eatwell

Martin A Shimko

Glenn E Warnaka

Mark E Warnaka

Michael J Parrella, Jr

Bart A Siegel

John K Conley

Dexter G Smith

David Claybaugh

Thomas Lundie

William Kokonaski

Sean O'Brien

Irene Lebovics

Cheryl Bray

Ed Lau

Zeev Kitov

John Lash

Michael A Hayes

Jonathan Parrella

Jerry M Metcoff

A pipeline reconditioning system and process is provided for reconditioning corroded or damaged pipelines. The reconditioning system includes a mobile topside unit storing and providing reservoirs and supplies of substances used in the pipeline reconditioning and the equipment for the reconditioning system, a management and towing units that are securely anchored in the pipeline at remote access points, and a towed delivery system array that includes a deployment sled that processes the substances and dispenses the reconditioning material, such as a composite epoxy resin with chopped glass or basalt filament fibers, between access points to the pipeline interior.

Pipe reconditioning system

A pipe mounting system comprising support cables is provided for use in mounting an above-ground elevated pipe or an underwater pipe. The pipe mounting system includes a suspended composite pipeline and a support cable. Multiple cable carriers are provided to carry the support cable along the length of the pipeline, and cradles or rings are provided that extend from the cable carriers and receive and support the pipeline.

Surface elevated onshore and offshore cable mounting system

Thermally insulating pipes are provided for use in the transportation of a heated substance, such as steam or a fluid. The thermally insulating pipes allow the substance traveling through the pipes to retain their heat during transport. The thermally insulating pipes may include one or more layers each of pipe and insulating material, which are overlapping and alternating in the thermally insulating pipe. An outer pipe layer is also provided on the thermally insulating pipe, which may have an increased thickness for threading, splicing or swedging the thermally insulating pipe.

Thermally insulating pipes

Materials and pipes made from woven, knit, spun or braided fiber threads that provide high tensile strength and caustic resistance. A fibrous material, made from a substance such as fiberglass or basalt, is bound to an epoxy resin, which is cured to create a durable material that can be used in several applications, including applications involving high heat and caustic materials.

Method and apparatus of making pipes and panels using a treated fiber thread to weave, braid or spin products

A geothermal heat delivery system supplies geothermal heat for various residential, surface heating applications, including heating driveways, paths, sidewalks, homes, roofs, swimming pools, and commercial applications, including heating roadways, parkways, highways, airport runways, parking lots and sidewalks. The geothermal heat delivery system includes a series of heat pipes that are used to provide geothermal heat from a borehole to a structure or a surface, which can for example, melt precipitation on a road, driveway or roof, without the use of a ground source heat pump.

Construction products and systems for providing geothermal heat

A method and apparatus are shown for burning crude oil or natural gas extracted from an underground reservoir, or for burning both crude oil and natural gas extracted from an underground reservoir, for providing thermal energy. The method and apparatus are also shown transferring the thermal energy to brine separated from the extracted oil, gas or both, for providing heated brine, or for converting the thermal energy to mechanical work, or for both transferring the thermal energy to the separated brine and converting the thermal energy to mechanical work. The method and apparatus are also shown heating the underground reservoir with the heated brine injected into the underground reservoir, or heating the underground reservoir with a resistive cable energized by electricity generated by converting the mechanical work to electric energy, or heating the underground reservoir with both the heated brine and the energized resistive cable.

Green boiler&#x2014;closed loop energy and power system to support enhanced oil recovery that is environmentally friendly

A comprehensive enhanced oil recovery system that combines a plurality of different implementations of several enhanced oil recovery methods in an integrated system. The enhanced oil recovery system includes heating an underground reservoir having a heat transfer matrix to increase the temperature of the reservoir around a production well. The heat transfer matrix includes thermal injection wells, production wells and heat delivery wells.

Comprehensive enhanced oil recovery system

A method and system are shown that conditions an underground reservoir to cause oil and gas to increase flow, excites the conditioned underground reservoir with pressure waves to further increase flow, and recovers the oil and gas with the increased flow. The excitation may be done via one or more production wells in synchronism with excitation done via one or more conditioning wells so as to cause constructive interference of the pressure waves and further increase flow.

Pulsing pressure waves enhancing oil and gas extraction in a reservoir

Apparatus is provided having one or more SWEGS that may be configured to heat air in a draft power tower arrangement. In a closed loop, cold fluid may be pumped into the SWEGS and heated to a temperature in a range of e.g., 100&#xb0; C.-300&#xb0; C., and hot fluid pumped out of the SWEGS. This fluid flows through a heating element (e.g., a radiator or specially designed heat exchanger) that heats the air in the draft power tower arrangement.

Power tower&#x2014;system and method of using air flow generated by geothermal generated heat to drive turbines generators for the generation of electricity

A process is shown to efficiently drill multiple, short-length, medium-radius lateral holes from a vertical well shaft. The disclosed process may be performed without the need to repeatedly pull down-hole equipment for every lateral hole drilled so as to make the lateral hole drilling process efficient. A heat pipe assembly is shown inserted into each drilled hole. The disclosed drilling and heat pipe insertion may be performed multiple times at a given vertical depth location in the well shaft. The process may be performed without the need to repeatedly pull down-hole equipment for insertion of multiple heat pipes at a same vertical level in the well level for each lateral hole drilled at that level so as to make for an efficient heat pipe insertion process. The described process may be performed multiple times at a large number of vertical depth locations.

System and method for creating lateral heat transfer appendages in a vertical well bore

A system and method of maximizing heat transfer at the bottom of a well using heat conductive components and a predictive model are used to design and implement a closed-loop solid state heat extraction system to conduct geothermal heat from rock within the well. A heat conductive material inserted into the well conducts heat to the fluid heat exchanging element. The closed-loop solid state heat extraction system extracts geothermal heat from the well without exposing the rock surrounding the heat nest to a liquid flow.

System and method of maximizing heat transfer at the bottom of a well using heat conductive components and a predictive model

A closed-loop, solid-state system generates electricity from geothermal heat from a well by flow of heat, without needing large quantities of water to conduct heat from the ground. The present invention contemplates uses for depleted oil or gas wells and newly drilled wells to generate electricity in an environmentally-friendly method. Geothermal heat is conducted from the Earth to a heat exchanging element to heat the contents of pipes. The pipes are insulated between the bottom of the well and the surface to minimize heat dissipation as the heated contents of the pipes travel to the surface.

System and method of capturing geothermal heat from within a drilled well to generate electricity

A system and method of operation are shown where the system includes a plurality of geothermal wells, each well having a heat exchanger therein including closed cycle system piping to and from the surface, each well having plurality of appendages drilled in multiple directions in relation to the central borehole of the well and filled with heat conductive material in order to conduct heat from the appendages to the heat exchanger. At least one upstream working fluid manifold is connected at manifold inlets to piping conveying hot working fluid pumped from the closed cycle system piping of more than one of the plurality of geothermal heat extraction borehole wells and connected by manifold outlets to piping conveying the pumped hot working fluid to at least one heat engine.

System and a method of operating a plurality of geothermal heat extraction borehole wells

A control system manages and optimizes a geothermal electric generation system from one or more wells that individually produce heat. The control system includes heat sensors that measure temperature and fluid flow and are placed at critical points in the wells, in piping, in a hot fluid reservoir, in a cold fluid reservoir and in a cooling system. The control system also includes pump and valve controls, generator controls, a network for gathering information and delivering instructions, and a processing module that collects information and communicates control information to each component.

Growing community of inventors

Weston, CT, United States of America

Michael J Parrella