1<!DOCTYPE html><html lang="en"><head><meta charSet="utf-8"/><meta name="viewport" content="width=device-width, initial-scale=1"/><link rel="preload" as="image" href="/assets/biosqueeze-logo-white.png"/><link rel="preload" as="image" href="/assets/biomineralization-microbes.webp"/><link rel="stylesheet" href="/assets/index-UwhKoVAw.css" data-rsc-css-href="/assets/index-UwhKoVAw.css" data-precedence="vite-rsc/importer-resources"/><link rel="modulepreload" href="/assets/layout-segment-context-KX8HPRlV.js" crossorigin=""/><link rel="modulepreload" href="/assets/rolldown-runtime-S-ySWqyJ.js" crossorigin=""/><link rel="modulepreload" href="/assets/index-B9BosF13.js" crossorigin=""/><link rel="modulepreload" href="/assets/framework-CXnKph_e.js" crossorigin=""/><link rel="modulepreload" href="/assets/site-BrHplL0B.js" crossorigin=""/><link rel="modulepreload" href="/assets/measurement-D5CGMPA4.js" crossorigin=""/><link rel="modulepreload" href="/assets/script-DV_IRd5E.js" crossorigin=""/><link rel="modulepreload" href="/assets/analytics-consent-tb1QqvJy.js" crossorigin=""/><title>Biomineralization Technology | BioSqueeze</title><meta name="description" content="See how BioSqueeze uses low-viscosity fluids to form structural limestone inside pores, fractures and connected subsurface pathways."/><meta name="application-name" content="BioSqueeze"/><meta name="keywords" content="biomineralization,biocement,well integrity,subsurface engineering,soil stabilization,mine dewatering,water shutoff,sustained casing pressure,infrastructure repair"/><meta name="author" content="BioSqueeze Inc."/><link rel="author" href="https://biosqueeze.com"/><meta name="creator" content="BioSqueeze Inc."/><meta name="publisher" content="BioSqueeze Inc."/><meta name="robots" content="index, follow"/><meta name="googlebot" content="index, follow, max-image-preview:large, max-snippet:-1, max-video-preview:-1"/><meta property="og:title" content="Biomineralization Technology | BioSqueeze"/><meta property="og:description" content="See how BioSqueeze uses low-viscosity fluids to form structural limestone inside pores, fractures and connected subsurface pathways."/><meta property="og:url" content="https://biosqueeze.com/technology"/><meta property="og:site_name" content="BioSqueeze"/><meta property="og:type" content="website"/><meta property="og:image" content="https://biosqueeze.com/assets/platform-home-subsurface.jpg"/><meta property="og:image:width" content="1828"/><meta property="og:image:height" content="980"/><meta property="og:image:alt" content="BioSqueeze subsurface biomineralization platform"/><meta name="twitter:card" content="summary_large_image"/><meta name="twitter:title" content="Biomineralization Technology | BioSqueeze"/><meta name="twitter:description" content="See how BioSqueeze uses low-viscosity fluids to form structural limestone inside pores, fractures and connected subsurface pathways."/><meta name="twitter:image" content="https://biosqueeze.com/assets/platform-home-subsurface.jpg"/><link rel="shortcut icon" href="https://biosqueeze.com/favicon.ico"/><link rel="icon" href="https://biosqueeze.com/favicon.ico" sizes="any"/><link rel="icon" href="https://biosqueeze.com/favicon-192.png" sizes="192x192" type="image/png"/><link rel="icon" href="https://biosqueeze.com/favicon-512.png" sizes="512x512" type="image/png"/><link rel="apple-touch-icon" href="https://biosqueeze.com/favicon-192.png" sizes="192x192"/><link rel="canonical" href="https://biosqueeze.com/technology"/>
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1<link rel="modulepreload" href="/assets/index-B9BosF13.js" /> 2</head><body><header class="nav wrap"><a class="logo" href="/" aria-label="BioSqueeze home"><img src="/assets/biosqueeze-logo-white.png" alt="BioSqueeze"/></a><nav aria-label="Primary navigation"><a href="/#platform">Platform</a><a href="/markets">Industries & Applications</a><a href="/technology">Technology</a><a href="/resources">Resources</a><a href="/team">About Us</a><a href="/contact">Contact</a></nav><button class="nav-toggle" type="button" aria-label="Open navigation" aria-expanded="false" aria-controls="mobile-navigation"><span></span><span></span><span></span></button></header><main><section class="subhero technology-hero"><div class="wrap"><p class="kicker">Platform & technology</p><h1><span class="technology-hero-word">Biomineralization:</span><br/>a new engineering tool.</h1><p>Low-viscosity fluids move through pores, fractures and void spaces, then form structural limestone precisely where it is needed.</p></div></section><section class="microbe-design" aria-label="Microbes forming biocement"><div class="wrap microbe-design-grid"><div><p class="kicker">Biology becomes infrastructure</p><h2>Mineral forms inside the problem.</h2></div><img src="/assets/biomineralization-microbes.webp" alt="Microscopic view of microbes forming crystalline biocement"/></div></section><section class="capability-detail capability-detail-primary"><div class="wrap three"><article><i>01</i><h3>Strengthen</h3><p>Cement grains and particles at their contact points to increase bearing capacity and stabilize unconsolidated materials.</p></article><article><i>02</i><h3>Seal</h3><p>Reduce permeability within connected fluid pathways and create a permanent mineral barrier.</p></article><article><i>03</i><h3>Heal</h3><p>Fill fractures, reinforce damaged cement and restore continuity within aging infrastructure.</p></article></div></section><section class="platform-advantages-visual"><div class="wrap"><div class="section-intro light"><p class="kicker">Advantages of BioSqueeze</p><h2>Designed to reach the pathway and form the barrier in place.</h2><p>Six practical characteristics explain why biomineralization can address defects and connected pathways that are difficult for conventional bulk materials to reach.</p></div><div class="advantage-summary-grid"><article><span>01</span><h3>Water-like viscosity</h3><p>At approximately the viscosity of water, BioSqueeze fluids enter micro-annuli, pores, fractures and channels that bulk materials cannot access.</p></article><article><span>02</span><h3>Targeted in-place formation</h3><p>Treatment is designed to mineralize within the intended connected pathway or treatment zone while preserving surrounding open geometry.</p></article><article><span>03</span><h3>Self-diverting placement</h3><p>The fluids follow the highest-permeability pathway first. As mineral forms and permeability falls, treatment redirects into the next connected pathway.</p></article><article><span>04</span><h3>Mineral formed in place</h3><p>Calcium carbonate precipitates in direct contact with rock, steel, cement and aggregate rather than arriving as a pre-formed material.</p></article><article><span>05</span><h3>Self-limiting biology</h3><p>The process uses controlled oxygen. When it is consumed, biological activity stops and the microbes become entombed in the mineral they produced.</p></article><article><span>06</span><h3>Stable end state</h3><p>The result is inert crystalline limestoneânot an ongoing biological reaction or a temporary organic barrier.</p></article></div></div></section><section class="section"><div class="wrap"><div class="section-intro"><p class="kicker">From science to engineering</p><h2>Controlled mineral formation, deployed at field scale.</h2><p>Biomineralization occurs throughout nature. The engineering challenge is making it predictable, repeatable and practical under real field conditions.</p></div><div class="mechanism-grid"><p>BioSqueeze has developed the fluid systems, manufacturing controls, pumping equipment, treatment designs and operating procedures required to deploy biomineralization as an engineered subsurface process.</p><div class="steps"><article><b>01</b><h3>Deliver</h3><p>Introduce low-viscosity treatment fluids through existing access points or purpose-built injection systems.</p></article><article><b>02</b><h3>Reach</h3><p>Follow connected pores, fractures and pathways that cement, grout and other bulk materials often cannot reach.</p></article><article><b>03</b><h3>Mineralize</h3><p>Use a controlled metabolic process to precipitate calcium carbonate and create structural limestone in place.</p></article></div></div></div></section><section class="sub-dark"><div class="wrap mechanism-grid"><div><p class="kicker">Why the process works</p><h2>The treatment follows the problem.</h2><p>In complex connected systems, the most conductive pathway takes fluid first. Mineral formation progressively reduces that pathway'
2s permeability, naturally redirecting treatment into the next pathway.</p></div><div class="flow-sequence"><div><span>Highest flow</span><strong>Fluid enters the dominant pathway</strong></div><div><span>Mineral growth</span><strong>Permeability falls as limestone forms</strong></div><div><span>Self-diversion</span><strong>Treatment moves to the next pathway</strong></div></div></div></section><section class="section"><div class="wrap next-links"><div class="section-intro"><p class="kicker">See the platform in practice</p><h2>One mechanism. Multiple deployment contexts.</h2></div><div class="link-cards"><a href="/markets/energy"><span>Commercial foundation</span><strong>Energy & Oil and Gas</strong><b>â</b></a><a href="/markets/defense"><span>Large-scale validation</span><strong>Department of War Programs</strong><b>â</b></a></div></div></section></main><footer><div class="wrap"><a class="footer-logo" href="/" aria-label="BioSqueeze home"><img src="/assets/biosqueeze-logo-white.png" alt="BioSqueeze"/></a><span>Engineering the subsurface through field-proven biomineralization.</span><div class="footer-links"><a href="mailto:[email protected]">[email protected]</a><a href="/privacy-policy">Privacy Policy</a><button type="button">Cookie Settings</button></div></div></footer>
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