Lesson 1 - General Overview of Global Energy Markets

Lesson 1 - General Overview of Global Energy Markets atb3

Welcome to EME 801: Energy Markets, Policy, and Regulation

New to EME 801?

Registered students - If this is your first visit to this course website, please take some time to become familiar with the assignments and course environment by going to the course Orientation.

This website provides the primary instructional materials for the course. The Resources menu links to important supporting materials, while the Lessons menu links to the course lessons. Canvas, Penn State's course management system, is used to support the delivery of this course, as well, as it provides the primary communications, calendaring, and submission tools for the course.

Quick Facts about EME 801

Mark Kleinginna
  • Instructor - Mark Kleinginna, College of Earth and Mineral Sciences, The Pennsylvania State University.
  • Overview - EME 801 is a required course for the Master of Professional Studies in Renewable Energy Sustainability and Systems online degree program, geared towards students who are able to study only part time and at a distance. The course will provide an overview of the basics of energy project decision-making, project finance, energy risk management and how to think about the impacts of commodity market dynamics on these decisions.This course will also provide an overview of commodity markets for oil and petroleum products; natural gas; and electric energy, with a focus on structure and function rather than theory in the context of the current renewable energy markets. It is hoped that this course provides a financial background for students to think about how energy markets for both renewables and other forms of energy will affect the current and coming transitions.
  • Learning Environment - This website provides the primary instructional materials for the course. The Resources menu links to important supporting materials, while the Lessons menu links to the course lessons. Canvas, Penn State's course management system, is used to support the delivery of this course as well, as it provides the primary communications, calendaring, and submission tools for the course.
  • Topics of Study - The content of this course is divided into 15 lessons. Each lesson will be completed in approximately 1 week.
    • Lesson 1, General Overview
    • Lesson 2, Project Pre-Research
    • Lesson 3, Basic Accounting and Corporate Finance
    • Lesson 4, Basic Accounting and Corporate Finance, cont'd
    • Lesson 5, Cost-Benefit Analysis and Decision Making
    • Lesson 6, Cost-Benefit Analysis and Decision Making, cont'd
    • Lesson 7, Risk Management in the Energy Space
    • Lesson 8, Taxes, Subsidies, and Incentives for Renewable Energy Projects
    • Lesson 9, Introduction to Regulatory and Rule-Making Processes
    • Lesson 10, National and Global Markets for Petroleum and Natural Gas
    • Lesson 11, Regulation and Deregulation in the Electricity Industry
    • Lesson 12, Economic Challenges in the Integration of Renewable Resources
    • Lesson 13, Economic Challenges in the Integration of Renewable Resources, cont'd
    • Lesson 14, Discussion of Specific Environmental Policies

Want to join us? Students who register for this Penn State course gain access to assignments and instructor feedback and earn academic credit. For more information, visit Penn State's Renewable Energy and Sustainability Systems Program website. Official course descriptions and curricular details can be reviewed in the University Bulletin.

This course is offered as part of the Repository of Open and Affordable Materials at Penn State. You are welcome to use and reuse materials that appear on this site (other than those copyrighted by others) subject to the licensing agreement linked to the bottom of this and every page.

Lesson 1 Overview

Lesson 1 Overview mxw142

Overview

This lesson will discuss the way that energy decision makers and stakeholders look at development of new projects and technologies. We will define the motivation for the entire EME 801 Course. We will also hopefully allow students to be able to take a holistic view of energy markets and place them in a broader context to understand how various stakeholders will act in various situations. By training ourselves to ask these questions, we will be able to participate in and even help drive the energy transition.

Please note that we will be convening as a team to discuss this course's subject matter as well as any other energy transition matters the cohort would like to cover.

Learning Outcomes

By the end of this lesson, you should be able to:

  • Discuss topics related to global energy markets
  • Explain the importance of energy markets in an economic context, a geo-political context, and an environmental context
  • Explain the placement of the current energy transition in a historic context
  • Describe the sources and sinks of energy in the United States energy eco-system
  • Develop a global list of stakeholders for energy decisions
  • State your preference for the time/day of a recurring class Zoom call

Reading Materials

Each of the reading assignments below is meant to introduce the importance of -- and give a taste of -- the structure of global energy markets. While reading these, please think about how to describe how you think energy questions affect the near and long-term future of your business and our society.

What is due for Lesson 1?

This lesson will take us one week to complete. Please refer to the Course Calendar for specific due dates. Specific directions for assignments are in the Lesson 1 module in Canvas.

  • Complete all of the Lesson 1 readings and viewings, including the lesson content

Questions?

If you have any questions, please post them to our Questions? discussion forum (not email). I will not be reviewing these. I encourage you to work as a cohort in that space. If you do require assistance, please reach out to me directly after you have worked with your cohort --- I am always happy to get on a one-on-one call, or even better, with a group of you.

The Importance of Energy to the Economy, the Environment, and the World

The Importance of Energy to the Economy, the Environment, and the World jls164

The Economy

As we walk through our daily lives, it becomes very easy to take for granted the almost complete dependence we have, as humans in a post-industrial economy, on the incredible supply of inexpensive and convertible energy. If we live in anything other than a tropical climate, we require heating so that we don’t freeze. We use energy to till our fields and harvest our food. We also use energy to provide light during non-daylight hours as well as power machines that allow for inexpensive manufactures such as clothing and other household items. We move about, except when walking or bicycling, through the conversion of some sort of potential energy into the kinetic energy of the plane, train, automobile, or boat. And finally, we use energy to communicate and store and manipulate data. This vast network of comfort, nourishment, nutrition, transportation and information would be utterly impossible without inexpensive and readily dispatchable energy. It is literally the life’s blood of the entire economic system.

The resemblance between the human circulatory system and the natural gas grid (or the electric transmission and distribution grid) is similar, and the energy delivery system is almost as crucial to the economy as the circulatory system is to the human.

Schematic of the human circulatory system
Figure 1.1: The human circulatory system
Credit: Circulatory System by Mariana Ruiz Villarreal via Wikimedia Commons is licensed under public domain.
Natural gas pipelines map in the US, separated by interstate pipelines in blue, and intrastate pipelines in red.
Figure 1.2: Map of U.S. interstate and intrastate natural gas pipelines
Credit: Map of U.S. interstate and intrastate natural gas pipelines. U.S. Energy Information Administration, Natural Gas Explained (Public Domain). For an accessible version contact EIA.

This chart shows the dependence on energy of various economies around the world. This is directly showing Tons of Oil equivalent to make $1,000 of GDP. A tonne of oil is equivalent to 7.44 barrels or 11,630 kWh. The implications are massive. Every 1,000 dollars of GDP in the US has at least 1 MWh or almost a barrel of oil embedded in it. More importantly, this offers no quantification of the risk to the economy should this energy supply be disrupted. Then the energy intensity would increase massively and whole supply chains and communication networks would be disrupted.

See image caption and text below image. See link in caption for text description.

Figure 1.3: Total energy supply per unit of GDP for selected countries and regions, 2000-2020

Total energy supply per unit of GDP for selected countries and regions, 2000-2020
YearUSAIndiaWorldChinaEU
20000.1650.1530.1520.2440.106
20010.1610.1480.1490.2330.106
20020.160.1470.1490.2280.105
20030.1560.140.1480.2370.106
20040.1530.1370.1470.2440.105
20050.1490.1320.1450.2420.103
20060.1430.1290.1420.2350.1
20070.1430.1270.1380.2220.095
20080.1390.130.1360.2090.094
20090.1360.1310.1360.2040.093
20100.1360.1280.1360.2040.095
20110.1320.1260.1330.20.09
20120.1270.1260.1310.1920.09
20130.1270.1220.1280.1840.089
20140.1250.1210.1260.1760.084
20150.120.1150.1220.1650.083
20160.1170.1080.1190.1540.082
20170.1140.1060.1170.150.081
20180.1130.1050.1160.1470.078
20190.1110.1010.1140.1450.076
20200.106--------

The Environment

The Environment mrs110

The constituents of global greenhouse gas emissions (those gasses which contribute to global warming) can be seen below:

See text description below

Figure 1.4: Global Greenhouse Gas Emissions by Gas

Global Greenhouse Gas Emissions by Gas
Source2010 Data
Carbon Dioxide (fossil fuels and industrial processes)65%
Carbon Dioxide (forestry and other land use)11%
Methane16%
Nitrous Oxide6%
Flourinated Gasses2%

To see just how much the energy sector contributes to these emissions, please see below.
Note: The pie chart below is interactive. You can click on sectors of the chart to see the proportions within a sector or category.

 

Figure 1.5: Global Greenhouse Gas Emissions by Sector (%)

Table 1: Energy Sector Emissions
SectorCategoryIndustry Sub-sectorEmissions %
Energy (73.2%)Used in Industry (24.2%)Other10.6
Energy (73.2%)Used in Industry (24.2%)Iron and Steel7.2
Energy (73.2%)Used in Industry (24.2%)Chemical and Petrochemical3.6
Energy (73.2%)Used in Industry (24.2%)Food and Tobacco1.0
Energy (73.2%)Used in Industry (24.2%)Non Ferrous0.7
Energy (73.2%)Used in Industry (24.2%)Paper Pulp0.6
Energy (73.2%)Used in Industry (24.2%)Machinery0.5
Energy (73.2%)Used in Buildings (17.5%)Residential10.9
Energy (73.2%)Used in Buildings (17.5%)Commercial6.6
Energy (73.2%)Transportation (16.2%)Road11.9
Energy (73.2%)Transportation (16.2%)Aviation1.9
Energy (73.2%)Transportation (16.2%)Shipping1.7
Energy (73.2%)Transportation (16.2%)Rail0.4
Energy (73.2%)Transportation (16.2%)Pipeline0.3
Energy (73.2%)Unallocated Fuel Combustion--7.8
Energy (73.2%)Fugitive Emissions--5.8
Energy (73.2%)Agriculture & Fishing--1.7
Agriculture (18.4%)Livestock and Manure--5.8
Agriculture (18.4%)Agricultural Soils--4.1
Agriculture (18.4%)Crop Burning--3.5
Agriculture (18.4%)Deforestation--2.2
Agriculture (18.4%)Cropland--1.4
Agriculture (18.4%)Rice Cultivation--1.3
Agriculture (18.4%)Grassland--0.1
Industry (5.2%)Cement--3.0
Industry (5.2%)Chemicals--2.2
Waste (3.2%)Landfills--1.9
Waste (3.2%)Wastewater--1.3
Credit: OurWorldinData.org, Climate Watch, The World Resources Institute (2020), Licensed under CC-BY(2.0)

Hopefully, it becomes apparent that to address the threat of global warming, addressing the greenhouse gas intensity of the energy sector is paramount. In order to address this intensity, we must understand how the markets for energy work. This understanding helps us to make better decisions as we are confronted with choices to make in our professions.

The World

The World mrs110

Energy dependence drives geopolitics significantly. Many (if not most) of the world conflicts since the early 1980s either have been directly caused by a scramble for energy or had significant energy undertones. The flashpoints for global conflict include Iraq, Iran, Libya, Syria, Ukraine, Russia, Nigeria, and Venezuela. Each of these nations has significant energy wealth. The recent and deadly conflict in Ukraine has significant energy implications. The Donbas region is a part of Ukraine with large oil and gas reserves. This potential supply, when interwoven with greater integration of Ukraine’s economy, represents a threat to Russia’s position as the EU’s energy supplier. Please read the article "6 Ways Russia's Invasion of Ukraine Has Reshaped the Energy World" for a view into the conflict and the effect on energy throughout the world.

There are many other examples of how energy and its uninterrupted supply influence geopolitics and national security strategy. These include a huge and continuous US Navy presence in the Persian Gulf and the Mediterranean Sea, as well as the long-term contracting of China for Petroleum products. Please read the article called "BP Signs Long-Term LNG Contract with China's Shenzhen Energy."

Energy Transition in Historical Context

Energy Transition in Historical Context jls164

The current energy transition away from fossil fuels is dramatic until it is placed in a historical context. Let’s look at the graph below for a great visualization:

A line graph showing that fossil fuels accounted for 80% of US energy consumption vs. just 20% for nonfossil in 2019
Figure 1.6: Nonfossil sources accounted for 20% of U.S. energy consumption in 2019.

Make sure to read the following articles, which are all listed on the Lesson 1 Overview page:

  • "Nonfossil Sources Accounted for 20% of US Energy Consumption in 2019"
  • "Peaking: A Breif History of Slelect Energy Transitions"
  • "The 200-year History of Mandkind's Energy Transitions"

Sources and Sinks (Or Supply and Demand)

Sources and Sinks (Or Supply and Demand) mrs110

Definitions:

  • Source - a place, person, or thing from which something comes or can be obtained.
  • Sink - a fixed basin.
  • Supply - a stock of a resource from which a person or place can be provided with the necessary amount of that resource.
  • Demand - the desire of purchasers, consumers, clients, employers, etc., for a particular commodity, service, or other item.

Please see the figures below to visualize the various sources and sinks of energy in the US economy. Both of these figures show the original source of energy, whether it be direct radiation from the sun, from combustion of natural gas, nuclear fission, or some other source. From there, we see how the sources "move" through the various conversion systems to provide energy services to the various sectors like transportation or residences (sinks):

Diagram showing U.S. energy flow for 2023 in quadrillion Btu. See text above for more information.

Figure 1.7: U.S. Energy Flow, 2021 See an interactive version of this graphic on the EIA website.

Refer to text description in caption

Figure 1.8: Estimated U.S. Energy Consumption in 2021: 100.2 Quads

The graphic is a flow diagram illustrating the estimated energy consumption in the United States for the year 2021, measured in quadrillion BTUs (quads). It uses colored arrows to show the flow of energy from various sources to their end uses.

The diagram visually represents the balance between energy production and consumption, highlighting inefficiencies where energy is rejected rather than used for services.

  • Solar: 1.5 quads
  • Nuclear: 8.13 quads
  • Hydro: 2.27 quads
  • Wind: 3.33 quads
  • Geothermal: 0.206 quads
  • Natural Gas: 31.3 quads
  • Coal: 10.5 quads
  • Biomass: 4.83 quads
  • Petroleum: 35 quads
    • Residential: 11.7 quads
    • Commercial: 9.0 quads
    • Industrial: 26 quad
    • Transportation: 26.9 quads
    • Net Electricity Generation: 36.6 quads
    • Rejected Energy: 65.4 quads
    • Energy Services: 31.8 quads
Credit: Lawrence Livermore National Laboratory and the Department of Energy

One of the most interesting sinks in the US economy is rejected energy. Rejected energy is that which does not provide useful work. Rejection is usually in the form of heat, but also in the form of transportation losses. What does this imply for the potential to decarbonize?

We discuss sources and sinks here to illustrate the level of energy consumption across the US and also how complex the overall market is.

We will discuss supply and demand in greater detail toward the end of the course. Understanding how these forces interact in the present as well as how they will interact in the future will help inform all the decisions we make in our professions.

Global Stakeholder Identification

Global Stakeholder Identification mxw142

What is the definition of a stakeholder?

A stakeholder is defined as, "a person or entity with an interest or concern in something.” Further elucidation might say “Individuals and organizations who are actively involved in the enterprise, or whose interests may be positively or negatively affected as a result of the enterprise.” An addition to this definition would also include those who believe their interest may be affected by the enterprise. This is a very useful definition as it allows us to cast a very wide net to make sure that all the people and institutions that will be affected by our decisions are considered.

On a global scale this is clearly a very “wide net.” It includes the entire earth and many different people and entities. And many entities will have more than one stakeholder identification. Below are some obvious energy stakeholders in the global market:

  • Producers
  • Consumers
  • Local, State, and National Government
  • Transporters of Energy
  • Marketers
  • Citizens

Please see if you can double or even triple the number of stakeholders globally as you consider the energy market.

Lesson 1 Summary and Final Tasks

Lesson 1 Summary and Final Tasks atb3

Lesson Summary

Hopefully in this lesson you learned how energy decision makers and stakeholders look at development of new projects and technologies. We defined the motivation for the entire EME 801 Course. We also hopefully allowed you to be able to take a holistic view of energy markets and place them in a broader context to understand how various players will act in various situations. By training you to ask these questions, you are becoming able to participate in and even help drive the energy transition.

Reminder - Complete all of the Lesson 1 tasks!

Please double check the What is Due for Lesson 1? list on the first page of this lesson to make sure you have completed all of the activities listed there before you begin Lesson 2.