Buildings That Store Carbon: How Next-Generation Carbon-Negative Construction Materials Are Changing Buildings and Infrastructure
A data-grounded look at who is patenting, where innovation is concentrated, and where whitespace remains in materials that store more carbon than they emit.
Report details
Next-Generation Carbon-Negative Construction Materials for Buildings & Infrastructure — Patent & Innovation Landscape Analysis Report
From lower-carbon materials to permanent carbon storage
This report analyzes the patent landscape and technological development of next-generation carbon-negative construction materials for buildings and infrastructure. It identifies key innovations in CO₂ mineralization, carbon-storing concrete and aggregates, carbon-negative binders, bio-based materials, biochar, and waste-derived materials, and evaluates how the field is moving from conventional low-carbon materials that reduce embodied carbon toward materials that deliver net carbon removal or long-term storage while keeping the strength, durability, scalability, and performance construction requires, including developments in cement replacement, mineral carbonation, CO₂ curing, and carbon-negative composites.
It also maps technology trends, leading assignees and research organizations, filing activity, geographic distribution, and emerging applications across concrete structures, precast products, bricks and blocks, insulation, pavements, roads, and bridges, and it identifies whitespace around permanent storage, durability, scalable manufacturing, cost reduction, carbon verification, feedstock availability, and compatibility with existing construction processes.
Built for everyone shaping low- and negative-carbon construction
Each audience gets a clear view of the landscape and what to do with it.
Turning construction from a carbon source into a carbon store
Construction materials, especially cement and concrete, carry a large embodied-carbon footprint. Most progress so far has focused on reducing that footprint. Carbon-negative materials go further: they use captured or biogenic carbon, through mineralization, CO₂ curing, carbon-storing aggregates, biochar, bio-based components, and carbon-negative binders, so that a product locks away more carbon than was emitted to make it. The challenge is to achieve that permanently, at scale and at competitive cost, without compromising strength, durability, or compatibility with how buildings and infrastructure are actually built.
Table of contents
Twelve chapters, from carbon-negative materials fundamentals to patent landscape intelligence. Click any chapter to expand.
The main routes to carbon-negative construction materials
Different ways of locking carbon into the materials buildings are made from.
Limits of conventional materials, and what stays hard
What carbon-negative materials aim to address, and the barriers still to clear.
Where carbon-negative materials could create value
Building and infrastructure components that can hold carbon.
Who is filing, where, and in which areas
The study covers methodology and scope, strategic insights, the assignee picture, filing activity over time, jurisdiction coverage, technology segmentation across mineralization, binders, aggregates, bio-based and waste-derived materials, representative publications, and the whitespace and strategic opportunities for new filings and licensing.
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