The TSI-101 jack offers a compact footprint, ability to reduce loads, and more efficient trip times.  It has ESG awareness integration and advanced performance monitoring.

• Test pump & fluid for testing

• Pump, bleed off tank & lines

• Complete certified iron packages inclusive of coflex hoses

• Kill pump and fluid management options

• 6 station closing unit with backup and remote panels located in work basket

• Snubbing packages available

• Extensive secondary (snubbing) accumulator system integral

• Extensive primary bop system and accumulator support packages

• 7-1/16” to 13 5/8” stack designs

• Shear ram included in all stack designs for 7 1/16” and 13 5/8” bops

• 12’ stroke

• 7-1/16” or 13-5/8” configurations available

• Heavy duty capacity gin pole with counter balance winches

• Quinta plex 1000HP Skid-Mounted Pump with 3" x 6" stroke and 15,000 psi WP

• 13 5/8" work window

• Serva SPM 600 with 3" x 6" stroke and 15,000 psi WP

• 460,000 lb rated substructure with stair towers

• Trailer mounted doghouse & generator

• Self contained fluid management system

Stores, mixes and treats the drilling fluid - essential for  lubricating the drill bit, removing cuttings, and maintaining wellbore stability.

• Storage: Holds large volumes of drilling mud, providing a reserve for continuous operations.

• Mixing: Contains agitators and mixing systems to blend in additives, adjusting mud density and viscosity.

• Solids Removal: Works with shale shakers, desanders, and centrifuges to separate rock cuttings and debris, cleaning the fluid.

• Circulation: Connects via piping to mud pumps, allowing treated mud to be sent back down the well.

• Material: Typically steel, built rugged for harsh environments.

• Compartments: Often divided into sections (like settling tanks or sand traps) for different treatment stages.

• Agitators: Impellers stir the fluid to keep solids suspended and prevent settling.

• Mud Guns: High-pressure jets spray corners to keep them clean.

• Mobility: Can be skid-mounted or have legs for transport.

Mud tanks are vital for efficient drilling by ensuring the mud's consistent quality, protecting equipment, and minimizing environmental impact through controlled fluid management.

A heavy-haul, specialized trailer used for transporting large equipment, most often a scissorneck trailer or a hydraulic drop deck lowboy. These trailers feature mechanisms that lower the deck or neck to ground level for easy and safe loading of heavy machinery without ramps or docks.

This model offers a full hydraulic system that lowers the entire main deck of the trailer chassis to the ground. This provides a very low approach angle for safe, drive-on/drive-off loading of equipment up to about 10,000 lbs for commercial rental models, though industrial oilfield versions have much higher capacities.

• Reinforced Construction Built with heavy-duty steel frames, multiple high-capacity axles, and robust suspension systems to manage massive, multi-ton loads.

• Versatile Loading The ability to drop the deck to ground level or use a folding neck acts as an integrated ramp, which is crucial for efficiency and safety when working remotely without loading docks.

• Specialized Accessories Common features include numerous chain pockets and D-rings for secure tie-downs, integrated rolling tail sections ("live rolls" or "kicker rolls") for handling pipe and skids, and extendable frames (trombones) for exceptionally long cargo.

A small, portable building used on a drilling or production site for the storage, organization, and minor repair of essential tools and equipment. It serves as a secure, on-site inventory and workspace to support ongoing operations.

• Portability: These shacks are often skid-mounted (built on a steel frame for dragging or lifting) or on wheels, allowing them to be easily moved between different well sites or locations on a large rig.

• Security and Organization: They feature lockable doors and often come internally equipped with tool cribs, shelves, cabinets, and workbenches to keep track of a wide variety of tools, from hand tools to specialized equipment.

• Durability: Constructed typically of heavy-duty metal (like steel), they are built to withstand the harsh environmental conditions common in oil and gas fields.

• Functionality: Beyond simple storage, they can function as a small on-site workshop or an office for the "tool pusher," the supervisor responsible for all drilling equipment and supplies on the rig.

• Wrenches (pipe, adjustable, combination)

• Sockets, ratchets, and associated accessories

• Hammers, chisels, and pliers

• Specialized oilfield equipment like various subs, hangers, and retrieving tools

The tool shack plays a vital role in ensuring efficiency and safety by making necessary equipment readily available and accounted for during drilling and well servicing operations.

a heavy-duty heating unit, often mobile, that generates steam or hot water for essential tasks in oil and gas operations, like heating drilling mud, powering drilling rigs, melting ice, or for steam-assisted recovery, using various fuels including oil or natural gas. These specialized boilers provide intense heat in remote, rugged environments, crucial for drilling, extraction, and refining processes.

• Drilling Operations: Heating drilling mud to maintain viscosity, powering drilling equipment, and melting frozen bits or lines.

• Oil Extraction: Providing steam for processes like Steam-Assisted Gravity Drainage (SAGD) to reduce heavy oil viscosity.

• Refining: Heating crude oil for separation into different components.

• Site Heating: Providing heat for well sites, temporary camps, and other facilities.

• Mobile Units: Often trailer-mounted for easy transport to remote drilling sites.

• Fuel Sources: Can burn various fuels, including crude oil, diesel, or natural gas.

• High Capacity: Designed to produce large volumes of steam or hot water quickly.

• Operational Efficiency: Essential for maintaining drilling fluid properties and enabling oil flow in cold conditions.

• Remote Access: Versatile units allow for operations in challenging locations.

• Specialized Skill: Operating them requires specific training, such as Special Boiler Operator (SBO) certification.

A durable, steel-sided enclosure or portable trailer used on a drilling rig as a combination office, communications center, and general shelter for the driller and crew. It is the operational hub of the rig floor and is designed to withstand harsh conditions.

• Command Center: It serves as the driller's office and the control center for monitoring drilling operations, housing essential controls and communication systems.

• Meeting Place and Break Room: Crews use the doghouse as a place to gather, have lunch, and change clothes.

• Storage: It functions as a storehouse for small items, tools, and important documentation like drilling reports.

Typical Amenities

a critical assembly of large, high-pressure valves installed on a wellhead to control subterranean pressures and prevent uncontrolled releases (blowouts) of oil and gas during drilling operations. It's a vertical arrangement of several BOP units, including annular preventers (sealing around various pipe sizes or the open hole) and ram preventers (sealing around specific pipe sizes, blind/shear for total closure), plus essential piping like choke and kill lines, to manage wellbore fluids and pressure.

• Annular Preventers: Located at the top, these use a rubber packing element that can close around any pipe size or even the open hole, but are typically lower pressure rated than rams.

• Ram Preventers: Offer robust sealing for specific conditions

• Drilling Spool: A spool with side outlets, allowing flow control.

• Choke Manifold/Lines: Redirects high-pressure influxes (kicks) to a choke, allowing controlled pressure reduction and heavier drilling fluid (mud) to be pumped in to regain control.

• Kill Line: Provides a path to pump heavy drilling fluid (kill mud) directly into the wellbore to kill the influx.

A complex assembly of pipes, valves (including adjustable chokes), and gauges used to control high pressures and flow rates from a wellhead during drilling and production, primarily by creating a controlled pressure drop to manage fluid/gas release, prevent blowouts, and allow for well testing and clean-up by routing flow through different paths. It provides essential pressure management by allowing operators to regulate flow, often featuring redundant chokes for safety and maintenance, and connecting to blowout preventers (BOPs) for well control operations.

• Choke Valves: The core element, these restrict fluid flow (oil, gas, drilling mud) to lower pressure and control production rates, with options for fixed or adjustable openings, often hydraulically controlled.

• Manifold Body: A system of pipes connecting valves and chokes, providing various flow paths.

• Valves: A series of isolation valves (manual and remote-controlled) allow operators to switch flow between chokes or bypass them without shutting down the well.

• Pressure/Temperature Sensors: Integrated gauges (thermowells, pressure sensors) monitor fluid properties.

• Kill Line: A separate line to pump heavy drilling mud (kill fluid) into the well to balance pressure during a kick.

• Redundancy: Multiple chokes ensure continuous operation if one needs repair.

• Safety: Mitigates blowouts by precisely managing wellhead pressure.

• Versatility: Configurable designs for various applications (onshore, offshore, high-pressure).

A pressure vessel that stores hydraulic energy, typically using a pre-charged, inert gas (like nitrogen) separated from hydraulic fluid by a bladder, diaphragm, or piston, allowing it to provide immediate power for critical functions like blowout preventer (BOP) operation, smooth pulsations, and maintain system pressure during pump fluctuations. Essentially, it acts as a pressurized energy reservoir, releasing stored fluid when the system needs a boost and absorbing excess fluid when pressure rises.

• Pressure Vessel: A strong shell (often steel) containing two chambers.

• Gas Chamber: Pre-charged with nitrogen (never oxygen, due to explosion risk).

• Fluid Chamber: Connected to the hydraulic system, holding incompressible hydraulic oil.

• Separator: A bladder, diaphragm, or piston keeps the gas and oil separate.

• Operation: When system pressure increases, oil enters the accumulator, compressing the gas. When system pressure drops, the expanding gas pushes the stored oil back into the system, maintaining consistent pressure and flow.

• Emergency Power: Stores enough energy to close BOPs if main power fails.

• Dampening: Absorbs pressure spikes (pulsations) from pumps, reducing wear and vibration.

• Supplementing Pump Flow: Delivers extra fluid during rapid demand, preventing pump overload.

• Pressure Compensation: Stabilizes pressure in control lines, especially near BOPs.

a crucial piece of equipment that removes unwanted gases (like methane, H₂S, CO₂) from drilling fluids and produced oil/water, preventing operational hazards, improving safety, and increasing efficiency. It works by creating low pressure (vacuum) or using centrifugal force in a vessel, causing gas bubbles to expand and separate from the liquid, often by spreading the fluid into a thin film over a baffle. The separated gas is then safely vented or reinjected, leaving cleaner fluids for further processing or transport.

• Gas-Cut Fluid Entry: Gas-cut drilling mud enters the degasser tank after passing the shakers (which remove large solids).

• Low Pressure Creation: A vacuum pump pulls air from the tank, and a jet nozzle at the discharge creates a low-pressure zone, making the gas bubbles expand.

• Thin Film Separation: Inside, the mud flows over a baffle, spreading into a thin layer, maximizing surface area for gas release.

• Gas Extraction: The low pressure causes gas bubbles to escape the thin mud layer and be continuously drawn out by the vacuum pump.

• Clean Fluid Discharge: Degassed mud exits through the discharge line into the next mud pit.

• Safety: Removes dangerous gases like Hydrogen Sulfide (H₂S) and methane, reducing explosion risks.

• Equipment Protection: Prevents foam, minimizes hydrostatic pressure loss, and protects pumps from gas interference.

• Efficiency: Improves drilling fluid properties and overall production.

A complete, self-contained, and often portable system designed to generate high-purity nitrogen gas on-site for various oil and gas industry applications. These systems are built on a robust, skid-mounted frame for easy transport and rapid "plug-and-play" installation, eliminating the logistical challenges and costs associated with delivered nitrogen supplies.

• Inerting and Blanketing: Displacing oxygen in storage tanks, pipelines, and equipment to create a non-reactive atmosphere, which prevents explosions, fires, and oxidation of valuable hydrocarbons.

• Pipeline Services: Used for purging pipelines to remove contaminants, moisture, and oxygen before operations begin, as well as for pressure testing to check for leaks and ensure system integrity.

• Well Services: Injected into wells for workover and completion operations, such as well stimulation, enhanced oil recovery (EOR), and gas lifts to help push oil and gas to the surface when natural reservoir pressure is low.

• Drilling Fluids: Nitrogen-assisted drilling can help reduce the density of drilling fluids, facilitating the removal of cuttings and improving overall efficiency and safety.

• Air Compressor: Draws in ambient air and compresses it to the required pressure.

• Air Treatment System: Includes dryers and filters (e.g., activated carbon towers, refrigerated dryers) to remove moisture, oil vapor, and contaminants from the compressed air, which is essential for the N2 generator's efficiency and longevity.

• Nitrogen Generator: The core component that separates the nitrogen from the air using either Pressure Swing Adsorption (PSA) technology (for very high purity) or membrane separation (for high flows and quick startup).

• Nitrogen Booster (Optional): A high-pressure booster is added if the application requires higher pressure (e.g., 40 bar for on-demand use or up to 300 bar for cylinder storage).

• Storage Tanks: Receivers for both compressed air and the final produced nitrogen to manage demand fluctuations and ensure a continuous supply.

• Control Panel: For monitoring and controlling the system's performance, purity levels, and pressure.

A self-contained system that generates, controls, and transmits hydraulic power (pressurized fluid) to operate various machinery and equipment used in oil and gas operations. It is essentially the "heart" of the hydraulic system, converting mechanical energy from a motor or engine into the high-pressure fluid flow needed to drive components like cylinders, motors, actuators, and valves.

• Actuating Safety Equipment and Valves: A primary function is the remote operation and control of safety equipment, production valves, and blowout preventers (BOPs), often in inaccessible or hazardous areas like the seabed or on an FPSO vessel.

• Providing Motive Force: They power heavy machinery and tools such as drilling equipment (top drives, winches, iron roughnecks), wellhead lubricators, and hydraulic tongs.

• Artificial Lift: HPUs are used in hydraulic pumping units (HPUs, confusingly the same acronym in this context) to provide the reciprocating motion needed to lift oil and gas from wells when natural reservoir pressure is insufficient.

• Ensuring Reliability: Many units are designed with redundant pump systems and energy accumulators to ensure a continuous and stable supply of power, which is critical for safety and operational continuity.

• Prime Mover (Motor/Engine): An electric motor or a diesel/gas engine that provides the mechanical power to drive the pump.

• Hydraulic Pump: The core component that draws fluid from the reservoir and forces it into the system under high pressure.

• Reservoir (Tank): Stores the hydraulic fluid, allows for cooling, deaeration, and contaminant settling.

• Accumulators: Energy storage devices that maintain system pressure, store energy for sudden demands, and dampen pulsations.

• Valves: A system of control, relief, and directional valves to regulate fluid flow, pressure, and direction.

• Filtration System: Integrated high- and low-pressure filters that ensure fluid cleanliness, protecting sensitive components and extending system life.

• Coolers/Heaters: Systems to regulate the hydraulic fluid temperature to maintain optimal operating parameters and prevent component damage.

• Control System: Modern HPUs often feature local or remote (SCADA-ready) intelligent controls (PLC) and instrumentation for monitoring parameters like pressure, temperature, flow, and fluid level.