A laser tool apparatus includes a tool body; a fiber optic cable disposed in the tool body, the fiber optic cable including a laser head that emits a laser beam; a reshape optic disposed coaxially downstream of the fiber optic, the reshape optic reshaping the laser beam emitted from the laser head; and a flexible cable attached to the reshape optic. The flexible cable flexibly orients the laser beam at a desired angle within a borehole.

A laser tool apparatus includes a tool body; a fiber optic cable disposed in the tool body, the fiber optic cable including a laser head that emits a laser beam; a reshape optic disposed coaxially downstream of the fiber optic, the reshape optic reshaping the laser beam emitted from the laser head; and a flexible cable attached to the reshape optic. The flexible cable flexibly orients the laser beam at a desired angle within a borehole.

Systems to bore or tunnel through various geologies in an autonomous or substantially autonomous manner can include one or more non-contact boring elements that direct energy at the bore face to remove material from the bore face through fracture, spallation, and removal of the material. The systems can automatically execute methods to control a set of boring parameters that affect the flux of energy directed at the bore face. Systems can further automatically execute the methods to trigger an optical sensor to capture images at the bore face, generate temperature profiles, identify spall fragments and hot zones and/or adjust a set of boring controls. For example, the system can execute methods to adjust a standoff distance between the system and the bore face, and adjust power and/or gas supply to the non-contact boring element.

Systems and methods for stimulating hydrocarbon bearing formations include using a downhole laser tool. An example laser perforation tool is for perforating a wellbore in a downhole environment within a hydrocarbon bearing formation. The laser perforation tool includes a plurality of perforation units disposed within an elongated body of the laser perforation tool. Each of the plurality of perforation units includes a laser beam redirection tool coupled to a laser head. The beam redirection tool alters a direction of an output laser beam.

Systems and methods for stimulating hydrocarbon bearing formations include using a downhole laser tool. An example laser perforation tool is for perforating a wellbore in a downhole environment within a hydrocarbon bearing formation. The laser perforation tool includes a plurality of perforation units disposed within an elongated body of the laser perforation tool. Each of the plurality of perforation units includes a laser beam redirection tool coupled to a laser head. The beam redirection tool alters a direction of an output laser beam.

A mining machine applicable to fluidized mining and a mining method therefor are provided herein. A microwave transmitting mechanism, a liquid jet drill rod and a cutter-head are arranged at the head of a first excavation device of the mining machine. The ore body in front is first processed by the microwave transmitting mechanism and the liquid jet drill rod to reduce the strength of the ore body, which facilitates subsequent mining of the ore body, lowers the hardness requirements of the cutter-head, and reduces the wearing of the cutter-head. With this mining machine mining the ore body, the mined ores can be directly converted, under the ground, into resources in the easily transportable form, without transporting the ore to the surface for conversion, which saves the cost of transporting the ore to the surface.

The present application describes a rapid burrowing robot (RBR) that can dig tunnels using ultra high temperature rotating plasma torches.

The present application describes a rapid burrowing robot (RBR) that can dig tunnels using ultra high temperature rotating plasma torches.

This invention is a continuum of enabling technology applying prior patent applications to create and then sustain a planetary heavy construction, soil and water mining and refining using a nuclear power appliances infrastructure. The methods used within this invention provide capabilities to build a sustainable support environment for earth-like habitable complexes that will include buildings and maintenance facilities, living spaces, and office spaces focused on full scale commercial mining operations for He3, H.sub.2O and other strategic minerals and raw building materials.

This invention is a continuum of enabling technology applying prior patent applications to create and then sustain a planetary heavy construction, soil and water mining and refining using a nuclear power appliances infrastructure. The methods used within this invention provide capabilities to build a sustainable support environment for earth-like habitable complexes that will include buildings and maintenance facilities, living spaces, and office spaces focused on full scale commercial mining operations for He3, H.sub.2O and other strategic minerals and raw building materials.