A full commercial offering and the first piece of a connected portfolio play — an AI-driven, continuously-executable intelligence system covering the complete spectrum of borehole and core characterisation. The field intelligence chain begins here.
Understanding what is in the reservoir at the scale of individual rock grains, pore throats, and mineral assemblages is the foundational act of the entire field development and production intelligence chain. Every reservoir model, every field development plan, every completion and stimulation decision, every production optimisation strategy draws its validity from the quality of that foundational understanding.
This product addresses that foundational need directly. It replaces the manual, specialist-dependent, periodically-produced characterisation workflow with an AI-driven, continuously-executable intelligence system. The characterisation intelligence it generates is governed, quantified, and integrated into the Energy Operating System's data foundation — the raw material from which TARGET's broader asset lifecycle portfolio builds its reservoir models, optimises its development programmes, and governs its investment decisions.
The energy industry spends enormously to generate subsurface characterisation data, then loses most of its value to the speed and consistency limits of the manual workflows that process it. This product eliminates that loss: what took weeks now takes minutes, what depended on individual specialist judgment now runs on a consistent, quantified, AI-driven framework, and what once sat in a static report now flows as a live, governed data asset into the organisation's intelligence infrastructure.
A cascade of specialist-dependent, time-consuming processes designed for a world where computation was expensive and human expertise was the primary analytical asset.
The shift: not a faster version of this workflow — a full replacement, architecturally impossible before AI-driven image intelligence reached today's maturity.
The capabilities are not a collection of analytical tools. They are one system — each component feeding the next, and all outputs flowing as governed data assets into the Energy OS foundation.
An AI-driven engine processes thin section images from carbonate and clastic reservoirs and returns fully quantified characterisation in minutes per sample, at pixel-level precision — lithology, texture, pore types, cement, grain mineralogy, pore-throat measurements, and AI-computed permeability.
The advantage is structural, not incremental: results that are quantified, reproducible, and consistent across every sample regardless of programme volume.
Mercury Injection Capillary Pressure has governed pore-throat distributions, capillary pressure curves, and rock typing for decades — but it is expensive, slow, environmentally restricted, and sparse by necessity.
The product eliminates that constraint. Using the same deep-learning infrastructure, it projects MICP-equivalent characterisation directly from thin section images — capillary pressure curves, pore-throat radius distributions, and saturation profiles — in minutes per sample, across every thin section in the programme, without physical mercury.
A conventional core description is a static log — produced over days or weeks, frozen at creation, and disconnected from the log and petrographic data that belong beside it.
The product converts core box photographs into dynamic, azimuthal digital descriptions — a live, multi-scale, depth-synchronised data asset rather than a static image. Reservoir rock typing becomes one consistent system across every scale.
One depth-synchronised environment brings together thin sections, core plugs, photographs, open-hole logs, borehole imaging, and rock-type classifications — ending the tool-switching that has long fragmented interpretation.
A geoscientist moves fluidly from pore scale to log scale without leaving the environment. AI digitisation revives decades of legacy paper, film, and analogue records into searchable digital assets, and a governed 360° repository covers every core data type.
Built natively on the Energy Operating System, the product's AI capabilities draw on a domain-specific corpus of carbonate and clastic thin section imagery accumulated across live deployments in the world's most geologically complex producing fields. That training corpus is not a feature of the product — it is the competitive moat.
The product does not produce a one-time characterisation study. It establishes a continuously-operating characterisation intelligence capability that compounds in value with every well and every data point added to the governed data estate.