AndreaBozzo/ceres-open-data-index huggingface dataset:
Qualification of Flexible Fiber-Reinforced Pipe for 10,000-foot Water Depths

The objective of this project is to develop, qualify, and field-deploy flexible fiber reinforced pipe (FFRP) for ultra-deepwater applications in the Gulf of Mexico. FFRP is unbonded flexible pipe with composite reinforcement layers which have the advantages of light weight, high flexibility and corrosion resistance. Due to these advantages, a simple, low top tension riser configuration is enabled. The initial design basis, to be confirmed during Phase 1, is a 7-inch ID, 10,000 psi design pressure, 120C design temperature, 3,000 meter design water depth production riser application.



Tags: 10121-4402-02, Fact Sheet, Offshore
Pressure Prediction and Hazard Avoidance through Improved Seismic Imaging

The objectives of this project was to (1) Deliver a benchmark stimulated seismic dataset that will be used by industry and academic research institutes to investigate improved approaches for prediction of shallow hazards and deep over-pressured reservoirs; and (2) Reduce drilling risk - both safety and environmental - through improved pre-drill pressure prediction methodologies that are derived from iterative interpretations of the simulated dataset.

 

The project evaluated and advanced current methodologies for pre-drill pressure prediction from seismic data in the deepwater Gulf of Mexico. An industry research consortium will be established to provide a collaborative forum where industry experts will prioritize current challenges in the use of seismic velocity (and other seismic attributes) to construct pore pressure and hazards forecasts for well planning. The existing SEAM Deepwater Subsalt earth model will be modified to incorporate these challenges. A seismic acquisition plan will be designed that can be evaluated that can evaluate the potential for current and future acquisition and processing techniques to provide improved estimates of abnormal pressure regimes. This seismic dataset will be developed through advanced computer simulation. The resultant benchmark dataset(s) is available to industry and academia for quantifying risk and uncertainty associated with velocity models derived from current and future stat-of-the-art in seismic acquisition, processing and imaging. A proposed methodology will be developed, with recommendations for further research, for assessing risk and uncertainty in pressure prediction from seismic.

Tags: 12121-6002-02, Fact Sheet, Offshore
Methodology and Algorithm Development for the Evaluation of Ultra-Deepwater

The objective of this project was to improve the overall safety of ultra-deepwater or arctic floating platforms by implementing nonlinear effects in a state of the art software code that could be used by the industry. Better understanding of the effects in a state of the art software code that could be used by the industry. Better understanding of the effects of nonlinearity on floating platforms through research and development would inherently decrease the risks associated with implementing ultra-deepwater or arctic design projects. The objective was met through the development of a methodology and associated algorithms for the evaluation of ultra-deepwater floating platform performance under hazardous sea conditions. Numerical tools were developed and implemented for the computation of ultra-deepwater floating platform performance and safety for the extreme ocean conditions.

Tags: 12121-6402-01, Fact Sheet, Offshore
Intelligent Casing Intelligent Formation Telemetry (ICIFT) System

The overall objective is to identify reliable technologies that might be applied to make the production casing "intelligent"; allow safe and effective deployment, and ensure highly reliable and effective data transmission to the surface. This project focuses on developing an "intelligent" formation telemetry system from points external to the casing to complement "intelligent" casing telemetry systems (i.e. an intelligent Casing-intelligent Formation Telemetry (ICIFT) System) to provide a measurement system capable of recording data across all points of the producing zone.

Tags: 10121-4504-01, Fact Sheet, Offshore
Hi-Res Environmental Data for Enhanced UDW Operations Safety Fact Sheet

Ocean currents can pose significant challenges to safe oil and gas operations in the Gulf of Mexico (GoM). One primary objective of this research program was to better understand the physical mechanisms that cause periods of elevated current velocities. Specifically, the passage of Tropical Revolving Stroms (TRS) over areas of relatively higher sea surface temperature (e.g., loop current (LC) or associated eddy (LCE) may cause elevated currents in the boundary layers of the water column. Two in situ current measurement programs will focus on near bottom and near surface boundary layers and compare them to expert 3-D numerical models. The second primary objective of this program was to develop a technique to survey surface currents in real-time over a large horizontal range of at least 300km per day

Tags: 11121-5801-01, Fact Sheet, Offshore
Hydrate Modeling & Flow Loop Experiments for Water Continuous & Dispersed Systems

Hydrates continue as the most important flow assurance problem; an order of magnitude larger than waxes/asphaltenes. The project objectives are to: (1) modify the current pressure drop modeling approach to account for a free water phase, (2) prform flow loop experiments at the University of Tulsa to identify and quantify the key parameters affecting pressure drop, (3) incorporate the pressure drop model with the growth rate model in CSMHyK-fw, (4) validate the improved CSMHyK-fw model by predicting flow loop experiments, (5) model development for water+gas and water+gas+oil (continuous and partially dispersed) systems.

Tags: 10121-4202-01, Fact Sheet, Offshore
High Resolution 3D Laser Imaging for Inspection, Maintenance, Repair and Operations Fact Sheet

The objectives of the project include the development of a fully operational sensor to scan targets in a pool environment and then integrate with the power and communications from an industry leading ROV. This will validate the capabilities of underwater laser imaging to collect accurate 3 dimensional data of objects which are representative of those found in deep water oil and gas production systems.

Tags: 09121-3300-06, Fact Sheet, Offshore
Heavy Viscous Oil Pressure, Volume, Temperature

The objectives of this work are to evaluate current practices in viscosity measurements, correlations, and models of heavy, viscous oil, to include experimental validation of the models; develop best practices of sample handing and laboratory measurement methods; study the impact of solvent and commingling of different fluids on viscosity change and asphaltenes instability, including examination of the existing models and mixing rules in handling the property change; and report on conditions in which multiple phases exist.

Tags: 08121-2201-02, Fact Sheet, Offshore
Geophysical Modeling for Studying Acquisition and Processing Methods in the Deepwater Gulf of Mexico

The project will contribute to the evolution of geophysical imaging technology by providing a realistic benchmark geological model containing multiple geophysical attributes along with two synthetic seismic datasets and three synthetic nonseismic datasets that will allow industry to assess individual as well as joint geophysical acquisition and processing techniques for generating images of hydrocarbon reservoirs beneath and surrounding massive, complex salt bodies.

Tags: 07121-2001, Fact Sheet, Offshore
Fiber Containing Sweep Fluids for Ultra-Deepwater Drilling Applications Fact Sheet

The project objectives are to improve the understanding of (drilling fluid) fiber sweeps, develop fiber sweep systems that improve hole cleaning in UDW drilling operations, minimize hole cleaning related problems, develop models and correlations to predict fiber sweep performance and optimization, recommend fiber sweep best practices, reduce drilling costs and improve operational safety, and develop sweep technology that minimizes the impacts of drilling on the natural environment. The study will deliver formulations of stable fiber containing sweep fluids, an experimental database describing hole cleaning performance of fiber sweeps, correlations and mathematical models that are useful for designing and optimizing fiber sweep applications, and recommendations and guidelines for field operations.

Tags: 08121-2902-07, Fact Sheet, Offshore
Enumerating Bacteria in Deepwater Pipelines in Real-Time at a Negligible Marginal Cost Per Analysis

The objective of the project is to provide improved evaluation technology for identifying microbially‐influenced corrosion caused by bacteria producing iron sulfides that accumulate and block pipelines. Livermore Instruments will develop BioAerosol Mass Spectrometry (BAMS) technology to provide real time bioassays and conduct a laboratory demonstration of the enumeration and quantification of sulfate‐reducing bacteria (SRB) in real time, and determine the threshold application of sodium hypochlorite required to neutralize SRB in vitro.

Tags: 08121-2902-06, Fact Sheet, Offshore
Effect of Global Warming on Hurricane Activity

The study will conduct an assessment of potential impacts of global warming on North Atlantic hurricane activity with a focus on the Gulf of Mexico. The large-scale component will be provided by existing global climate simulations from the NCAR Community Climate System Model (CCSM) 3 archive of simulations undertaken for the Intergovernmental Panel on Climate Change (IPCC). The results will be used to determine how much the hurricane intensity and frequency is likely to change in the Gulf of Mexico over approximately the next 50 years. All data will also be archived and made available for further studies on hurricane responses to climate variability and change.

Tags: 07121-1801, Fact Sheet, Offshore
Effect of Climate Variability and Change in Hurricane Activity in the North Atlantic Fact Sheet

The overall objective of this work was to help provide better planning guidelines to enable improved design of structures and operating procedures that will provide more efficient future oil and gas production and aid in the minimization of environmental and safety risks. 

The immediate goal was to provide industry with credible projections of future hurricane activity in the Gulf of Mexico together with and assessment of direct impacts on safety, environmental risk and production.

Tags: 10121-4802-01, Fact Sheet, Offshore
Displacement & Mixing in Subsea Jumpers Experimental Data and CFD Simulations Fact Sheet

The objective of the project is to conduct an experimental and computational study of the mixing and displacement phenomena that take place during hydrate inhibition of jumper type configurations using MEG and methanol, as well as to determine how these findings help in preventing hydrate formation in jumper type configurations.

Tags: 09121-3300-02, Fact Sheet, Offshore
Development of Carbon Nanotube Composite Cables for Ultra Deep Water Oil and Gas Fields Fact Sheet

The objectives of the project are to double the electrical conductivity of carbon nanotube - copper composites utilizing the new Acoustic Flow Cytometry and/or Acoustically Engineered Materials techniques. Once accomplished, a method will be developed to scale up the composites' length, and the composite length will be extended to 100 meters while maintaining (or improving) other physical characteristics and physical properties.

Tags: 09121-3300-10, Fact Sheet, Offshore
Development of Advanced CFD Tools for the Enhanced Prediction of Explosion Pressure Development

The objectives of the project was to provide oil and gas companies operating in the GOM with the tools necessary to design "inherently safer" offshore facilities that can survive gas explosion incidents and prevent escalation. This project enhanced and validated the capabilities of the industry-standard explosion modeling CFD software, FLACS, to aid in reducing the HS&E-related incidents in the GOM. The project has improved and adapted the capabilities of FLACS to predict MCE early in the design phase of GOM UDW drilling and production facilities and provide the information necessary to design facilities to mininmize the consequences of explosion incidents. The project was divided into two phases. Phase 1, the FLACS DDT onset prediction capability was validated for scales and geometries relevant to GOM UDW structures through a series of large-scale experiments to provide data for model validation of FLACS. In Phase 2, an anticipated congestion methodology (ACM) was developed for GOM offshore drilling and production facilities.

Tags: 12121-6403-01, Fact Sheet, Offshore
Deepwater Direct Offloading Systems

The primary objective is to provide sufficient knowledge to proceed immediately with the final engineering and contracting process to make the HiLoad DP concept available to GOM operations. It is the intent of this project to define an alternative deepwater offloading solution that enables access to utilization of conventional standard tankers that are neither purpose build or fitted with any special means or equipment.

Tags: 10121-4407-01, Fact Sheet, Offshore
Corrosion and Scale at Extreme Temperature and Pressure Fact Sheet

A lack of data and models for corrosion, scale and stress cracking at the extreme temperatures and pressures encountered in ultra-deepwater reservoirs increased the economic and safety risk of offshore production. The objective of this project is to develop the necessary data, models and experimental tools to assess corrosion, stress cracking, and scale formation at extremes of temperature and pressure encountered in deepwater development.

Tags: 10121-4204-01, Fact Sheet, Offshore
Coil Tubing Drilling & Intervention System Using Cost Effective Vessel Fact Sheet

The primary objective of this project is to provide the basis for detailed design of a cost‐effective deepwater Coil Tubing (CT) system for downhole work in deep water Gulf of Mexico (GOM) satellite wells without need for a Mobile Offshore Drilling Unit (MODU). This work will facilitate improved resource recovery from existing satellite wells and make it practical to develop reservoirs that would otherwise not meet economic hurdles. Tasks and deliverables include specification of equipment, identification and assessment of hazards and failure modes, and a comprehensive report including a plan and design basis for detailed design in Phase 2.

Tags: 08121-1502-01, Fact Sheet, Offshore
Autonomous Inspection of Subsea Facilities Fact Sheet

Autonomous Underwater Vehicles (AUVs) are becoming more capable and reliable. Implementation of AUV-based IRM in ultra-deepwater fields will provide game-changing improvements in cost, performance, safety and reliability that will enable cost effective production of these smaller deepwater fields. Industry advances in autonomy used on Unmanned Ground and Air vehicles may be transitioned to existing AUVs enabling the capability to perform autonomous inspections and light intervention. Incremental demonstration of such AUV capabilities will be required to convince Field Operators that the reliability, safety, and capabilities of these systems are acceptable for deepwater operations.

Tags: 09121-3300-05, Fact Sheet, Offshore
All Electric Subsea Autonomous High Integrity Pressure Protection System (HIPPS) Architecture

The objective of this project is to assess and advance the state of technology concerning subsea all-electric High-Integrity Pressure Protection Systems (HIPPS); a technology enabling extraction from high pressure fields and expansion of existing low-pressure subsea production networks. An all-electric fail-safe HIPPS will help ensure the integrity and safety of any downstream subsea equipment not rated for the wellhead shut-in pressure. This research addresses the unique requirements associated with safety, integrity, and reliability of practical subsea facilities. Successful commercialization and utilization of an all-electric HIPPS system will result in an added barrier to avoid environmental problems downstream of the system.

Tags: 10121-4306-01, Fact Sheet, Offshore
Cross-Scale Molecular Analysis of Chemical Heterogeneity in Shale Rocks

The organic and mineralogical heterogeneity in shale at micrometer and nanometer spatial scales contributes to the quality of gas reserves, gas flow mechanisms and gas production. Here, we demonstrate two molecular imaging approaches based on infrared spectroscopy to obtain mineral and kerogen information at these mesoscale spatial resolutions in large-sized shale rock samples. The first method is a modified microscopic attenuated total reflectance measurement that utilizes a large germanium hemisphere combined with a focal plane array detector to rapidly capture chemical images of shale rock surfaces spanning hundreds of micrometers with micrometer spatial resolution. The second method, synchrotron infrared nano-spectroscopy, utilizes a metallic atomic force microscope tip to obtain chemical images of micrometer dimensions but with nanometer spatial resolution. This chemically “deconvoluted” imaging at the nano-pore scale is then used to build a machine learning model to generate a molecular distribution map across scales with a spatial span of 1000 times, which enables high-throughput geochemical characterization in greater details across the nano-pore and micro-grain scales and allows us to identify co-localization of mineral phases with chemically distinct organics and even with gas phase sorbents. This characterization is fundamental to understand mineral and organic compositions affecting the behavior of shales.

Tags: Chemical Imaging, Machine Learning, Molecular Spectroscopy, Neural Network
Kevin Dome Geologic Model

As one of seven Regional Carbon Sequestration Partnerships, the Big Sky Carbon Sequestration Partnership (BSCSP) is
supported through a cooperative agreement with the U.S. Department of Energy (DOE). BSCSP’s goal is to demonstrate that
Kevin Dome is a safe and viable location for the long-term storage of carbon dioxide (CO2).

One component of this project was the continued development of a geomodel that was used to characterize the CO2 storage
complex. A geomodel was developed to represent the Upper Duperow (seal), the Middle Duperow (reservoir), overlying formations and underlying formations. Schlumberger Carbon Services was contracted to develop this geological model of Kevin Dome and the surrounding region. This geomodel used well data, well fracture interpretation, core, 2D seismic, 3D seismic and 3D seismic inversion products to statistically map the lateral heterogeneity of porosity and permeability within the storage complex. Now that the geomodel is completed, it is to be used as the primary input for reservoir simulations of CO2 migration in the Duperow. 

Files included in this submission offer versions of the model that require Petrel software with which they were created as well as non-petrel versions to allow use by a wider audience. There multiple scales and versions available here as final products as well as an in depth technical report that describes the methods used.  Individual files have more information on unzipping procedures as these files are very large and would be difficult to download in their full form.  Please read any information provided with the zip packages to ensure successful download and unpackaging.


Tags: BSCSP, Geologic Modeling, Geostatic Model, Kevin Dome
Kevin Dome Characterization Study

This report reviews the potential of Kevin Dome, a geologic formation located in north central Montana, as a potential underground large-scale sequestration site. In assessing and characterizing the commercial viability of Kevin Dome, this report provides carbon sequestration estimates of similar geologic domes in Montana.  The study results suggest a process to adequately characterize and utilize Montana’s geology to (1) commercially produce CO2 for enhanced oil recovery, (2) commercially store CO2 for future enhanced oil recovery, (3) encourage the use of CO2 as a tertiary oil recovery methodology to improve oil and gas production and spur the economic activity and state tax revenue growth that will accompany such an exploitation of these resources, and (4) provide a commercial site to permanently sequester CO2 to minimize potential environmental impacts of releasing CO2 into the atmosphere.

Tags: BSCSP, Carbon Sequestration, Enhanced Oil Recovery, Kevin Dome
Danielson 33-17 Well Logs

This submission is a collection of well log reports and .las files collected during logging operations of the Danielson 33-17 well as part of the Kevin Dome project under the Big Sky Carbon Sequestration Partnership. This work was conducted in North-central Montana near Sunburst, MT in 2014

Tags: BSCSP, Big Sky Carbon Sequestration Partnership, ELAN, LAS, Petrophysics, Well Logs
Danielson 33-17 Core Data

This collection of data is the result of core taken from the Danielson 33-17 well on the Kevin Dome project in North-Central Montana conducted by BSCSP.  Each file here has specific details on what it contains and/or how to use it.

Visit the core viewer online tool to browse this information and learn more https://core.bigskyco2.org/


Tags: BSCSP, Big Sky Carbon Sequestration Partnership, Core, Danielson 33-17, Plug, Well
Danielson 33-17 and Wallewein 22-1 Liquid Analysis

This analytical report shares the test results from both the Danielson 33-17 well and Wallewein 22-1 well fluid samples. 

The samples were received on 3/20/2015 11:18 AM; the samples arrived in good condition. The temperatures of the 2 coolers at receipt time were 21.1º C and 21.5º C. The Chain-of-Custody (COC) was incomplete as received and/or 
improperly completed. Collection date/time and analysis not listed on COC. Analyses selected from provided copy of quote submitted with samples. Also, collection times were not listed on the chain of custody. Collection dates and times consistent with container labels was used. The samples were was received outside of holding time for Alkalinity, Resistivity, Total Dissolved Solids, Chloride, Sulfate, and pH


Tags: BSCSP, Big Sky Carbon Sequestration Partnership, Danielson 33-17, Fluid Analysis, Wallewein 22-1
2018 University Turbine Systems Research Project Review Meeting

The 2018 UTSR project review meeting co-hosted by Embry-Riddle Aeronautical University was held at the Hilton Daytona Beach Resort/Ocean Walk Village in Daytona Beach, FL from Oct-30 – Nov 1. The theme of the review meeting was synergistic research between DOE, DOD, and NASA.

Tags: 2018, utsr
MIP3H_Scans

CT scans and multi-sensor core logger data to accompany the NETL technical report 
Paronish, T.; Mackey, P.; Crandall, D.; Moore, J.; Brown, S.; Carr, T.; Martin, K. Computed Tomography Scanning and Geophysical Measurements of Core from the Marcellus Shale Energy and Environment Laboratory; NETL-TRS-X-2018; EPAct Technical Report Series; U.S. Department of Energy, National Energy Technology Laboratory: Morgantown, WV, 2018; p 60.

Tags: CT scans, MSEEL, Marcellus Shale