The petroleum industry must minimize the environmental impact of its various operations. This extensively researched book assembles a tremendous amount of practical information to help reduce and control the environmental consequences of producing and processing petroleum and natural gas.
The best way to treat pollution is not to create it in the first place. This book shows you how to plan and manage production activities to minimize and even eliminate some environmental problems without severely disrupting operations.

It focuses on ways to treat drilling and production wastes to reduce toxicity and/or volume before their ultimate disposal. You'll also find methods for safely transporting toxic materials from the upstream petroleum industry away from their release sites. For those sites already contaminated with petroleum wastes, this book reviews the remedial technologies available. Other topics include United States federal environmental regulations, sensitive habitats, major U.S. chemical waste exchanges, and offshore releases of oil.
Environmental Control in Petroleum Engineering is essential for industry personnel with little or no training in environmental issues as well as petroleum engineering students.

Although many papers have been published describing methods for the inorganic analysis of petroleum no book has previously appeared devoted exclusively to this subject. The purpose of this work is to provide a laboratory handbook for industrial analysts of various degrees of professional training covering the determination of those elements commonly occurring in various types of petroleum products. The procedures represent, from the author's point of view, a reasonable compromise among the usual conflicting interests of speed, accuracy, and cost, and emphasize manufacturing rather than research applications. CONTENTS: Introduction 1. The Inorganic Components of Petroleum 2. Preparation of Samples for Inorganic Analysis: Direct Ashing, Soft Ashing and Wet Oxidation, Direct Wet Oxidation, Fusion with Pyrosulfate, The Oxygen Bomb, The Peroxide Bomb, Sodium Dehalogenation, Extraction Methods, Combustion Methods, Alkaline Sulfide Treatment, Direct Methods, Combustion Tube, Emission Spectrograph, X-rays 3. Aluminum: Colorimetric Determination, Gravimetric Determination 4. Arsenic 5. Barium: Determination in New Lubricating Oils, Determination in Used Lubricating Oils 6. Boron: Colorimetric Determination, Alkalimetric Determination 7. Calcium: Determination in New Lubricating Oils and Additives, Determination in Used Lubricating Oils, Estimation of Smaller Concentrations 8. Chromium 9. Cobalt: Electrolytic Determination, Volumetric Determination 10. Copper: Determination in Gasoline, Determination in Naphthenate Driers, Determination in Distillates, Determination in Used Lubricating Oils 11. The Halogens: Peroxide Bomb Combustion, Sodium Dehalogenation, Extraction Procedures, Wickbold Oxyhydrogen Combustion, Potentiometric Determination of Bromide and Chloride, Colorimetric Determination of Chloride, Volumetric Determination of Fluoride 12. Iron: Determination in Distillates, Determination in Used Lubricating Oils, Determination in Naphthenate Driers, Colorimetric Determination, Volumetric Determination 13. Lead: Determination in Naphthenate Driers, Determination in Light Distillates, Determination in Lubricating Oils 14. Manganese 15. Molybdenum: Determination in New Lubricating Oils, Determination in Used Lubricating Oils 16. Nickel: Determination in Distillates, Gravimetric Determination 17. Nitrogen: Determination of Total Nitrogen by Kjeldahl Method, Determination of Basic Nitrogen, Determination of Quaternary Ammonium Compounds 18. Phosphorus: Decomposition by Ashing in Presence of Zinc Oxide, Colorimetric Methods, Alkalimetric Determination of Phosphorus 19. Selenium: Colorimetric Determination, Volumetric Determination 20. Silicon: Determination in Synthetic Oils, Determination of Silica in Used Lubricating Oils 21. Sodium: Decomposition of Sample by Direct Ashing, Gravimetric Determination, Determination by Flame Photometer 22. Sulfur: Determination by Peroxide Fusion Bomb, Determination by Wickbold Oxyhydrogen Combustion 23. Vanadium: Determination in Distillates, Determination in Fuel Oils, Volumetric Determination 24. Zinc: Determination in Additives and Naphthenate Driers, Determination in New and Used Lubricating Oils, Potentiometric Determination, Gravimetric Determination; Appendix; Wickbold Apparatus for Oxyhydrogen Combustion; Index

This book presents the proceedings of the 3rd International Conference on Integrated Petroleum Engineering and Geosciences 2014 (ICIPEG2014). Topics covered on the petroleum engineering side include reservoir modeling and simulation, enhanced oil recovery, unconventional oil and gas reservoirs, production and operation. Similarly geoscience presentations cover diverse areas in geology, geophysics palaeontology and geochemistry. The selected papers focus on current interests in petroleum engineering and geoscience. This book will be a bridge between engineers, geoscientists, academicians and industry.

As feedstocks to refineries change, there must be an accompanying change in refinery technology. This means a movement from conventional means of refining heavy feedstocks using (typically) coking technologies to more innovative processes that will coax the last drips of liquid fuels from the feedstock.
This book presents the evolution of refinery processes during the last century and as well as the means by which refinery processes will evolve during the next three-to-five decades. Chapters contain material relevant to (1) comparisons of current feedstocks with heavy oil and bio-feedstocks; (2) evolution of refineries since the 1950s, (3) properties and refinability of heavy oil and bio-feedstocks, (4) thermal processes vs. hydroprocesses, and (5) evolution of products to match the environmental market.
Process innovations that have influenced refinery processing over the past three decades are presented, as well as the relevant patents that have the potential for incorporation into future refineries.
Comparison of current feedstocks with heavy oil and bio-feedstocks.
Evolution of refineries over the past three decades.
Properties and refinability of heavy oil and bio-feedstocks.
Thermal processes vs. Hydroprocesses.
Evolution of products to match the environmental market.

* Investigates the engineering and plant design challenges presented by heavy oil and bio-feedstocks

* Explores the legislatory and regulatory climate, including increasingly stringent environmental requirements

* Examines the trade-offs of thermal processes vs. hydroprocesses"

This book presents the proceedings of the 4th International Conference on Integrated Petroleum Engineering and Geosciences 2016 (ICIPEG 2016), held under the banner of World Engineering, Science & Technology Congress (ESTCON 2016) at Kuala Lumpur Convention Centre from August 15 to 17, 2016. It presents peer-reviewed research articles on exploration, while also exploring a new area: shale research. In this time of low oil prices, it highlights findings to maintain the exchange of knowledge between researchers, serving as a vital bridge-builder between engineers, geoscientists, academics, and industry.

A guide to the entire process of installing and managing underground storage tanks, with a focus on preventing leaks, and what to do if a leak occurs.

In this information-packed volume, the authors present mathematical models and analyses for evaluating, assessing, and describing the petroleum geology of the oil-rich South Caspian Sea Basin, including eastern Azerbaijan and western Turkmenistan. Their mathematical models include descriptions of the development and structure of the surrounding geological systems and traps.

Details the petrophysical properties and interrelationship with reservoir and source rocks
Describes how new technology has made it possible to profitably produce off previously useless wells
A valuable resource for exploration companies in the area of the South Caspian Basin

Petroleum engineering now has its own true classic handbook that reflects the profession's status as a mature major engineering discipline.
Formerly titled the Practical Petroleum Engineer's Handbook, by Joseph Zaba and W.T. Doherty (editors), this new, completely updated two-volume set is expanded and revised to give petroleum engineers a comprehensive source of industry standards and engineering practices. It is packed with the key, practical information and data that petroleum engineers rely upon daily.

The result of a fifteen-year effort, this handbook covers the gamut of oil and gas engineering topics to provide a reliable source of engineering and reference information for analyzing and solving problems. It also reflects the growing role of natural gas in industrial development by integrating natural gas topics throughout both volumes.
More than a dozen leading industry experts-academia and industry-contributed to this two-volume set to provide the best, most comprehensive source of petroleum engineering information available.

Asphaltenes have traditionally been viewed as being extremely complex, thus very hard to characterize. In addition, certain fundamental properties of asphaltenes have pre viously been inaccessible to study by traditional macroscopic methods, further limiting understanding of asphaltenes. These limitations inhibited development of descriptions regarding the microscopic structure and solution dynamics of asphaltenes. However, a variety ofmore recent studies have implied that asphaltenes share many chemical properties with the smaller, more tractable components of crude oils. Recent measurements have indicated that asphaltene molecular weights are not as arge as previously thought, perhaps in the range of 600 to I 000 amu. In addition, new experimental methods applied to asphaltene chemical structures have been quite revealing, yielding a broad understanding. Conse quently, the ability to relate chemical structure with physical and chemical properties can be developed and extended to the understanding of important commercial properties of asphal tenes. This book treats significant new developments in the fundamentals and applications of asphaltenes. In the first section ofthe book, new experimental methods are described that characterize asphaltene structures from the molecular to colloidallength scale. The colloidal properties are understandable in terms of asphaltene chemical structures, especially with regard to the heteroatom impact on bonding. However, quantitative measurements of the of asphaltene self-association still need to be determined. In the second section of enthalpy this book, the fundamental understanding of asphaltenes is related riirectly to asphaltene utilization."

The Water Research Institute at the Technion (Israel Institute of Technology) is proud to have initiated and sponsored the International Workshop "Soil and Aquifer Pollution: Non-Aqueous Phase Liquids - Contamination and Recla- tion," held May 13th-15th, 1996, on the Technion campus in Haifa. Groundwater contamination is one of the pressing issues facing Israel and other countries which depend on groundwater for water supply. In Israel, 60% of the water supply comes from groundwater, most of it from two large aquifers. The Coastal Aquifer underlies the area where the largest concentration of human activity already takes place, and where much of future development is expected to occur. It is a phreatic sandstone aquifer, vulnerable to pollution from activities at the surface. The Mountain Aquifer is recharged in the higher terrain to the east, and flows, first in a phreatic zone, then confined, westward and underneath the Coastal Aquifer. This limestone aquifer has higher permeabilities and flow velo- ties, so pollution can reach the groundwater quite readily. Smaller local aquifers are also important components in the national water system. While measures are taken to protect these aquifers from pollution, there are locations where contamination has already occurred. Furthermore, accidental pollution may not be totally avoided in the future. Therefore, understanding the processes of groundwater contamination, recommending the proper measures for preventing it, and determining the best means for reclamation once pollution has occurred, are of great practical importance. Non-aqueous phase liquids (NAPLs) are among the most significant contaminants.