China’s Oil Futures Market Opens Strong



The Yale School of Forestry and Environmental Studies Newsletter

Yale School of Forestry and Environmental Studies pic

Yale School of Forestry and Environmental Studies

Former Shell executive David Lawrence attended Yale University, where he earned a PhD in geology and geophysics. After more than a decade with Shell, he now serves as the CEO and chairman of the Lawrence Energy Group, an energy consultancy firm. Along with his professional responsibilities, David Lawrence conducts seminars and lectures for organizations such as the Yale School of Forestry and Environmental Studies.

Founded in 1900, the Yale School of Forestry and Environmental Studies focuses on providing research studies on the global environment as well as regional and local environmental issues. The school encourages a deeper understanding of how humans affect the global climate and steps they can take to help maintain a better ecosystem.

The Yale School of Forestry and Environmental Studies publishes a research newsletter to keep students apprised of relevant topics such as holistic ecosystem management and the effect of Lyme disease on human behavior. Readers can choose to subscribe to the newsletter weekly or monthly, or simply visit the newsletter’s website at

Shell Wind Energy Projects: Cabazon, California and Brazos, Texas

Shell Wind Energy pic

Shell Wind Energy

Retired Shell executive David Lawrence is the founder and chairman of Lawrence Energy Group LLC, an energy investment and advisory firm focused on diverse energy investment opportunities. During his time with Shell, David Lawrence oversaw many diverse energy initiatives including Shell Wind Energy.

As part of its renewable and alternative energy strategy, Shell maintains a portfolio of six operating wind projects throughout the United States. Conducted as 50:50 non-operated ventures, the projects produce approximately 425 megawatts (MW) of energy capacity net to Shell.

In California, Shell established the first commercial-scale wind project in the state at the Cabazon wind farm. Located west of Palm Springs, the Cabazon area has played host to wind turbines since the 1980s. Shell oversees a project area with 62 turbines, each of which produces 660 kilowatts of energy. The Cabazon wind project alone produces enough electricity every year to power 12,000 homes.

Together with Mitsui Wind, Shell also operates the Brazos wind farm in West Texas. Home to 160 1-MW turbines, the Brazos wind farm produces enough energy to power some 48,000 homes every year.

A Primer on Carbon Capture and Storage


Carbon Capture and Storage pic

Carbon Capture and Storage

The founder and chairman of Lawrence Energy Group LLC, David Lawrence spent the majority of his career as an executive with Shell Upstream Americas in Houston and Royal Dutch/Shell in London and The Hague. He retired from Shell in 2013. Starting his career at the United States Geological Survey and in Shell’s Bellaire Research Center, David Lawrence is a longtime advocate of energy research and development, particularly in areas such as carbon capture and storage (CCS).

CCS refers to the process of capturing carbon dioxide from fossil fuel combustion before it is released into the atmosphere. Once the carbon dioxide is captured, it must be stored in such a way that it does not leak into the surrounding environment and cause damage.

Carbon capture typically involves separating carbon dioxide from the other gases produced in industrial applications and electricity generation. Pre-combustion capture involves converting fuel into a mixture of gases before ever burning it for energy. In post-combustion capture, engineers extract carbon dioxide from combustion exhaust using membrane filtration, adsorption, or cryogenic separation.

After capturing carbon dioxide, engineers typically store the gas in geological rock formations several miles below the surface of the earth. Ideal candidates for carbon storage areas include some select former gas and oil fields, which have already been assessed thoroughly in geological and hydrodynamic terms.