Energy & Oil and Gas

The commercial foundation
of the BioSqueeze platform.

More than 400 field deployments across the United States and Canada have established biomineralization as a practical tool for difficult well-integrity and subsurface flow-control problems.

400+field deployments
13U.S. states
3Canadian provinces
90%+recent field success

Field-proven engineering

Seal pathways conventional materials cannot reach.

Portland cement, resins and mechanical systems solve many well-integrity problems. They become less reliable when the defect is too small, the geometry is unknown, the pathway is connected over long distances or placement pressures threaten to create additional damage.

BioSqueeze fluids move at approximately the viscosity of water, self-divert through active pathways and form gas-tight limestone barriers in place.

Problems & solutions

From well integrity to reservoir performance.

The commercial base is well-integrity remediation. The platform is now extending into formation-level flow control and production applications with operator partners.

The problem

Gas or fluid moving through damaged barriers

BioSqueeze response

Restore well integrity

Low-viscosity fluids enter micro-annuli, cement channels, casing defects and connected gas-migration pathways before forming a gas-tight mineral seal in place.

  • Sustained casing pressure
  • Surface casing vent flow
  • Casing leaks
  • Mechanical-integrity failures
The problem

A plugged or late-life well still leaks

BioSqueeze response

Complete asset retirement

Treat annular flow and leakage that persists after conventional remediation while preserving full wellbore access for the remaining abandonment program.

  • Leaking plugs
  • Annular gas migration
  • Previously abandoned wells
  • Gas-storage wells
The problem

Injected water follows high-permeability channels

BioSqueeze response

Improve flood conformance

Self-diverting fluids follow dominant flow paths and reduce permeability, redirecting injection toward intervals with less reservoir contact.

  • Water shutoff
  • Thief-zone control
  • Sweep efficiency
  • Waterflood conformance
The problem

CO₂ breaks through or escapes the intended interval

BioSqueeze response

Strengthen CO₂-EOR containment

Seal wellbore micro-defects and reduce permeability in thief zones, vugs and fracture networks that reduce gas utilization and flood efficiency.

  • CO₂ flood integrity
  • WAG conformance
  • Huff-and-puff containment
  • Interwell communication
The problem

Legacy fractures take the refrac fluid

BioSqueeze response

Create new reservoir contact

Reduce conductivity in depleted fracture networks so a subsequent treatment is more likely to initiate new fractures into unstimulated rock.

  • Refracturing isolation
  • Legacy-fracture sealing
  • Linerless refrac
  • Zonal isolation
The problem

Loose grains and fines damage productivity

BioSqueeze response

Stabilize the formation

Bind particles at grain-to-grain contacts before they migrate into pore throats, the wellbore or surface equipment.

  • Fines migration
  • Sand control
  • Near-wellbore stabilization
  • Formation strengthening

Engineered for the defect scale

Three systems for different pathway sizes.

Each treatment begins with diagnosis and treatment design. The product family allows the field team to match particle scale, fluid behavior and injection rate to the actual integrity problem.

< 1 μm gaps

NanoSeal™

Sub-micron defects, hairline pathways, thread imperfections and early-stage corrosion where the existing barrier remains largely intact.

1 μm–1 mm gaps

MicroSeal™

Micro-annuli, narrow cement channels, pinholes and casing-cement interface leaks too small for remedial cement.

1–10 mm gaps

MacroSeal™

Larger channels, voids, poor cement bond and significant barrier deficiencies where cement placement is difficult or unreliable.

Discuss a well

Give our team the integrity problem, operating constraints and available diagnostics.