Permian, Eagle Ford, Haynesville, and Appalachia basin coverage.

Real-world Permian operations. Essential for checking if office models match field reality.

Canadian unconventional resource development. Montney and Duvernay formation focus.

ProFrac Holding Corp. and Seismos, Inc. have successfully deployed the oil and gas industry’s first fully closed-loop hydraulic fracturing program, allowing for real-time, intra-stage optimization based on direct subsurface measurements.

ProFrac and Seismos have partnered to deploy their automated Closed Loop Fracturing system across major U.S. basins. Available in supervised or unsupervised modes, it integrates real-time subsurface diagnostics with surface automation to continuously optimize well completions.

ProFrac (NASDAQ: ACDC) and Seismos announced a strategic partnership for CLF, now available across all major U.S. basins. First large-scale deployment of an operator-validated, real-time QC system enabling fully automated closed-loop fracturing.

Strategic partnership with FastPack to address challenges in Chile's mining and industrial pipelines including corrosion, buildup, and leaks using PPHM acoustic sensing.

Seismos and NOV have partnered to globally integrate SAFA™ acoustic diagnostics into the Max Completions™ platform. This collaboration provides operators with real-time, cost-effective hydraulic fracturing data for on-the-fly optimization, eliminating the need for expensive downhole tools.

Funding round to accelerate development and international growth. Total funding to date: $32.1M. Investors include Quantum Energy Partners, Javelin Venture Partners, and Edison Partners.

Liberty Energy adopted Seismos Wellbore Integrity as a completions quality control tool alongside its fracturing services, providing per-stage production benchmarking.

ProFrac and Seismos’s Closed Loop Fracturing system uses live acoustic data to automatically adjust pumping parameters mid-stage. This real-time optimization actively improves fluid distribution, potentially boosting per-well value by $300,000.

Seismos's surface-only acoustic system, SAFA, enables operators to save over $300,000 per well by optimizing real-time fracturing parameters like diesel usage, friction reducers, and stage lengths. By providing live data on perforation efficiency and plug integrity without requiring downhole hardware, the system allows for immediate, cost-saving adjustments during active operations.

Seismos and FastPack have formed a strategic partnership to proactively tackle corrosion, buildup, and leaks in Chile's mining and industrial pipelines.

At a Greek Parliament meeting on clean energy, Seismos CEO Panos Adamopoulos advocated for adopting U.S.-style innovation frameworks to accelerate clean-tech startups while maintaining a balanced strategy that optimizes both conventional hydrocarbons and renewable resources.

In a Permian Basin case study, Seismos-Frac™ real-time diagnostics identified near-wellbore fracture complexity as the dominant production driver, showing that a highly complex zone produced over twice as many hydrocarbons as a less complex zone despite having lower rock quality.

As diverter technology becomes more relevant in wellbore stimulation, DiverterPlus and Seismos have teamed up to advance technologies in the near-field.

Seismos kicks-off MWF™ (Measurements While Fracing) operations in China.

In an interview with Oilfield Network News, Seismos Founder and CEO Panos Adamopoulos discusses Seismos products and how clients are using Seismos to leverage real-time decisions at the field level.

In a Barnett play case study, Seismos’s real-time fracture evaluation technology enabled a major U.S. operator to identify the optimal diverter volume, saving over 50 pounds of material per stage while improving fracture network performance and overall well economics.

Seismos and C&J Energy Services have partnered to combine Seismos-Frac's real-time, surface-based fracture evaluation technology with C&J's LateralScience rock mechanics data, enabling operators to optimize horizontal completions

This paper demonstrates the use of real-time acoustic friction analysis to evaluate different completion designs and assess the impact of perforation orientation on fracture initiation.

This paper analyzes data from over 200 Williston Basin wells to demonstrate a strong positive correlation between acoustically derived cluster Uniformity Index (UI) and early-time well production.

This paper introduces a real-time workflow using acoustic friction analysis to dynamically optimize hydraulic fracturing treatments by reallocating volumes and adjusting parameters based on live subsurface feedback.

This paper evaluates the impact of casing diameters, friction reducer types, and regional water quality on wellbore fluid friction utilizing direct measurements from acoustic friction analysis.

This paper presents an acoustic friction analysis method to diagnose the success of refracturing treatments by determining whether new rock is being stimulated.

This paper demonstrates the real-time assessment of perforation efficiency using acoustic friction analysis to evaluate the impact of perforation erosion and sand ramps during hydraulic fracturing stages.

This paper explores how acoustically measured perforation friction and efficiency can be utilized to optimize hydraulic fracturing operations and reduce environmental emissions.

This paper presents a method for constructing well- and fluid-specific pipe friction curves and monitoring perforation cluster efficiency using acoustic water hammer analysis during hydraulic fracturing.

This paper quantifies the economic value of improving fluid and proppant distribution uniformity across perforation clusters during hydraulic fracturing treatments.

This paper introduces a cost-effective, non-invasive method utilizing high-frequency surface pressure data to estimate the Uniformity Index (UI) during hydraulic fracturing treatments without the need for downhole tools.

This paper presents a methodology utilizing machine learning and real-time acoustic data to evaluate and optimize hydraulic fracturing effectiveness in the Bakken formation.

This paper outlines a real-time completion optimization workflow in the Eagle Ford shale that integrates mechanical specific energy (MSE) facies analysis with acoustic fracture diagnostics to maximize reservoir recovery.

This paper presents a method for estimating the conductivity of hydraulic fractures during multistage stimulation treatments by analyzing tube wave reflections at the wellhead.

This paper presents a multi-well study that utilizes real-time acoustic measurements to optimize hydraulic fracturing completion designs in the Delaware Basin's 3rd Bone Springs formation.

This paper presents a multidisciplinary study employing geochemical analysis, acoustic imaging, and chemical tracers to optimize infill development, characterize the reservoir, and mitigate fault-induced hazards in the Arkoma Basin's Woodford Shale.

This paper discusses the use of active acoustic pulses during an Eagle Ford bullhead refrac treatment to evaluate the effectiveness of flow diverters in real-time.

This paper introduces a method to analyze water hammer responses to uniquely determine pipe and perforation friction, enabling the quantification of perforation cluster efficiency.

Increasing vertical casing diameter from 5.5-inch to 6-inch significantly reduces pipe friction, improving overall frac efficiency and offsetting higher upfront costs.

A multi-bench Montney study reveals how targeted adjustments to perforation strategy, casing hardware, and flow velocity directly optimize cluster distribution and drive well economics.

The specific perforating charge selected has a direct, measurable impact on perforation efficiency and cluster uniformity, significantly affecting overall well economics.

Seismos Acoustic Friction Analysis (SAFA) enables scalable closed-loop fracturing workflows by utilizing high-frequency surface pressure data to separate friction and provide real-time stage diagnostics.

Direct separation of pipe and perforation friction using SAFA eliminates model-driven errors, revealing accurate, real-time stage behavior directly from treating pressure.

Seismos Acoustic Friction Analysis (SAFA) utilizes surface pressure data to accurately calibrate the initial perforation flow area, correcting spec sheet errors to enhance stage diagnostics and overall well performance.

Flow velocity serves as the primary control parameter for achieving cluster uniformity.

This webinar explores how trusted, scalable measurements create the foundation for real-time completion optimization.

Check out our webinar on real-time measurements of pipe friction and perforation friction through surface acoustic measurements with Kinleigh Fatharee from Seismos as a guest speaker.

Check out our webinar on applications of acoustic friction analysis and how to optimize and QC Perf Design with Kinleigh Fatharee from Seismos as a guest speaker.

Check out our webinar on evaluating completion design effectiveness using friction analysis with Muhammad Khan from Seismos as a guest speaker