Can Environmental Programs Keep Pace with Production in the Permian Basin?

The Permian Basin has long been the engine behind the United States’ oil industry, and recent production data reinforce this status: just ten counties across the Permian accounted for approximately 93% of U.S. oil production growth between 2020 and 2024.

While oil clearly remains central to the Permian’s identity, associated gas production is increasing rapidly and creating new operational challenges. Between 2021 and 2025, Permian marketed natural gas production rose 60%, from 17.2 billion cubic feet per day to 27.6 billion cubic feet per day. The Energy Information Administration (EIA) attributes this accelerated growth to rising gas-to-oil ratios as the basin matures, meaning teams are managing more gas per barrel of oil produced.

These higher output volumes are also placing greater demands on environmental programs and broadening the workload, from managing wet gas and produced water to supporting new infrastructure and maintaining emissions visibility across a larger asset base.

Many teams are managing these demands with fewer internal resources, changing regulations, acquisition-related transitions and greater scrutiny from customers, investors and capital providers.

In this changing state, environmental programs now have to do more than document compliance. They also need to help teams understand operational performance, prioritize work and support business decisions.

With gas-to-oil ratios rising, operators must manage greater gas volumes alongside oil, which in turn increases equipment, components, emissions sources and inspection requirements.

At the same time, environmental considerations now extend well beyond air. Produced water remains one of the most persistent challenges, with higher water volumes that must be handled, transported, recycled, treated, injected or otherwise managed.

The additional activity across the Permian has also created demand for new processing capacity, pipelines, compressor stations, gathering systems and construction support, bringing environmental requirements into play long before operations begin.

Alongside these new developments, existing infrastructure is under increasing strain. Mature or low-producing wells add closure, plugging, remediation and reclamation work to already full environmental agendas. Inside these systems, a missed inspection, malfunctioning flare or undocumented maintenance event can create compliance exposure, additional field work and questions about data quality.

As these responsibilities expand, stakeholders still expect performance to be maintained throughout the asset lifecycle, making the environmental data required to support operational continuity even more valuable.

Historically, environmental reporting focused on regulatory obligations. Today, commercial expectations are pushing higher standards for data quality, consistency and defensibility.

Information that was once used for compliance reporting now informs customer expectations, commercial negotiations, and market access decisions. 

For example, liquefied natural gas (LNG) buyers, certified gas programs, global markets, data center developers, utilities and large industrial customers are increasingly focused on methane intensity, emissions disclosure and the credibility of the data behind the reported performance.

In global markets, methane performance is an important factor in fuel sourcing and import requirements. In domestic markets, rising power demand from data centers is creating new opportunities for Permian gas while also bringing greater attention to the environmental profile of that supply.

Broad claims about environmental performance need to be backed by organized, defensible data.

Regional methane studies, satellite monitoring, aircraft flyovers and public reporting often characterize the Permian at a basin-wide level but may not accurately reflect the performance of every operator or facility.

When emissions are identified, operators must be able to quickly substantiate or refute these assertions. Answering these public questions requires connecting the right monitoring technologies with data management platforms to create a traceable path back to operating conditions, assets and events.

Choosing the right monitoring mix depends on the questions a team needs to answer. Continuous monitoring may help identify timing and duration. Optical gas imaging (OGI) and LDAR programs can help locate a source. Aerial or satellite data can add regional context. Emissions analytics can help connect those findings across assets and time.

Programs that link monitoring results to specific assets, events, operating conditions, maintenance activities and corrective actions, as well as distinguish facility-level performance from larger trends, provide teams with a clear advantage.

Environmental teams need more than periodic performance snapshots tied to reporting deadlines. They need timely access to information that helps them understand what is happening across a growing network of assets.

Although this information often already exists, it is typically fragmented across departments, systems, vendors and reports, hindering a team’s ability to provide clear and timely responses when quick access to information is required.

Mature environmental programs use environmental data differently. Instead of asking only what needs to be reported, they use it to understand performance, prioritize work and support operating decisions.

To do that consistently, teams connect monitoring results through a repeatable feedback loop: assess risk, gather evidence, prioritize action, measure results and demonstrate performance. Each step gives teams the context they need to understand what happened, decide what to do next and confirm whether those actions improved performance.

Five Elements of a Connected Feedback Loop

For example, consider a tank battery where monitoring repeatedly identifies emissions. Rather than addressing each detection as an isolated repair, a mature program links the finding to operating conditions, maintenance history and control performance. With this context, the team can determine whether the issue is due to a faulty thief hatch, pressure management problem, maintenance gap or broader design concern.

After corrective action, follow-up monitoring confirms emission reductions and creates a defensible record of issue identification, resolution and improvement.

Used consistently, this process helps teams improve performance while responding to the Permian Basin’s evolving operational, regulatory and commercial demands.

To keep pace with this larger, more complex environment, operators in the Permian Basin need environmental programs that improve operational visibility without increasing complexity. This requires integrating air, water, waste, natural resources, permitting, emissions monitoring, reporting and operational data into a cohesive system.

As production expands and new challenges develop, operators that connect environmental data with business decisions will have a clear competitive differentiator, improving their ability to manage risk, support growth and compete in increasingly data-driven markets.