
Explore how thinking in terms of systems reveals everyday economics, from home maintenance to checking accounts, and learn microeconomic patterns shaping personal finance within broader constraints.
Explore how ancient thinkers reduced the world to building blocks—from Thales’s water to Empedocles’s four elements: earth, air, water, and fire—and the atomists’ seeds, shaping modern science.
Learn to think in terms of systems by examining six building blocks: matter, energy, space, time, knowledge, and life, and how they manifest in everyday scenes like a breakfast setting.
Explore the mind–matter debate from Descartes to Spinoza and modern science, then expand the framework to six elements—matter, energy, space, time, knowledge, and life for systems thinking.
explains that change pervades life on earth and across scales within the six elements. examines materialism, mechanism, determinism, and naturalism as science's foundations, and contrasts teleology with intelligent design.
Explore the first and second laws of thermodynamics, conservation of energy, and entropy, showing how energy and matter change forms and move toward equilibrium despite anti-entropy in life.
Explore how change manifests through matter, energy, space, and time, and how knowledge and life interact with these elements in systems thinking.
Examine why all systems are open and why closed systems cannot exist, guided by thermodynamics and the Biosphere 2 experiment.
Explore open systems that require input and output to maintain dynamic equilibrium. Use the balloon analogy and daily life examples—air, water, food, clothing, shelter, energy.
Explore how to think in terms of systems by examining open systems, life and knowledge, survival threats, and how routines, support networks, and belief systems shape behavior.
Identify needs, locate resources, envision a system, build and initiate it, and evaluate outcomes using infrastructure, energy, passengers, tools, satisfaction, and waste to optimize throughput and return.
Quantify four values—beginning need, cost, benefit, and ending need—to evaluate a system's efficiency, effectiveness, and economy. Use examples like a plane crash survivor and car purchase to illustrate outcomes.
Explore marginal utility via the plane crash survivor example, comparing value in use and value in exchange. Explain no free lunch and economizing shaping resource use.
Explore system sequences by identifying, locating, envisioning, building, initiating, evaluating, and iterating. Use real examples like a newspaper line and a desert traveler to illustrate learning curves.
Explore system sequences and the three cycles—depletion, maintenance, and growth—and how trends in ending needs and the hiker example reveal economy and sequence reuse.
Explore how group systems enable symbiosis and mutual exchange in nature and society, with examples from bees and flowers, a squirrel and a nut-bearing tree, and a teacher and student.
Explore how synergy arises when two or more beings share a common need, pool resources, and form a group system that achieves greater economy and effectiveness.
Examine how limited resources steer systems to drive competitive and symbiotic relationships, compare bartering with and without money, and show currency as a medium of exchange under subjective value.
Explore how organization charts shape decision making, from the traditional pyramid to the freighter model, and master administration and authority to optimize information flow, resources, and customer value.
Apply quality control at every point of exchange to maximize the quality of resources, energy, and human effort as they flow through the organization, meeting customer expectations.
Apply systems thinking to a real-world air transportation scenario, using the six elements and steps identify, locate, envision, build, initiate, evaluate, adjust, reiterate, to select the safest, fastest option.
Explore how an airline operates as a group system with interconnected subsystems, including ticketing, luggage handling, security, and more, highlighting complexity, coordination, and the need to anticipate and manage delays.
Examine how simplicity and complexity shape systems, from airline routing and supply chains to organizational charts, and consider how economizing drives efficient carrying capacity.
Define a system as a pattern of thought and behavior that satisfies needs in a changing world; view the megasystem as Earth’s balance, energy, time, and the global economy.
Explore how to think in terms of systems to form a worldview that blends science with faith, including creation, commandments, Jesus, and life after death.
Explore how thinking in terms of systems helps identify patterns, design adaptive behavioral responses, and quantify needs, costs, and benefits amid limited resources and changing environments.
During this course the students will not only learn what systems are but also why they are an important part of our everyday lives. This course will work to help students to answer the following questions.
What are the six basic building blocks that make up our world?
How does change takes place not only in the environment around us but also within us?
What role do the Laws of Thermodynamics play in how our world works?
How can the word system be defined?
What is the difference between an open versus a closed system?
What does a system look like in terms of a diagram?
How can the performance of a system be evaluated in terms of its efficiency, effectiveness and economy?
What is marginal utility and why is it important regarding operating a system?
What is a system sequence and how do they relate to the concept of a learning curve?
What are the concepts of synergy and symbiosis and why are they important with respect to getting work done?
What is a traditional organizational chart and how might it be improved?
What is the concept of “point of exchange” and how might it be used for quality control, and root cause analysis within a manufacturing process?
What is a reasonable description of the word complexity?
How can increasing complexity make it more difficult to manage a system?
Can the whole world be viewed as being one large system?