This paper investigates the long-standing debate over whether computers are capable of genuine thinking. It examines competing definitions of thinking — as a values-driven, morally informed human process versus a memory-based, data-processing function — and applies these frameworks to evaluate the capabilities of modern computers. The paper outlines key research questions regarding decision-making, artificial intelligence, and the trajectory of computing development. It also surveys the hardware and software dimensions of both human cognition and computer architecture, reviews areas where computers have taken on roles once reserved for human judgment, and considers ongoing research into artificial intelligence as a potential pathway to machine-based thinking.
Like many contested topics in modern discourse, the question of whether computers can think remains unresolved. Humans have not yet reached consensus on whether a computer is genuinely capable of thought. Computers possess a form of "brain" — memory — but it remains under discussion whether this brain serves only to store and process information, or whether it also participates in genuine decision-making. Artificial intelligence sits at the heart of this debate, raising fundamental questions about the nature of cognition itself.
The process of thinking may be defined as the method by which an entity considers and generates ideas based on opinions and reasoning. While some believe that computers can not only think but also distinguish right from wrong, others hold that the role of computers is limited to selecting among available options. The debate touches on philosophy of mind, computer science, and cognitive biology — and its implications extend far beyond academic circles into healthcare, law, and everyday life.
At the center of this debate is the definition of thinking itself. Humanistic thinking involves values and moral considerations. If thinking is understood in this broader sense — as a process informed by emotion, ethics, and subjective experience — then computers, which can only select the option that best satisfies a set of provided criteria, fall short. They cannot generate their own decision-making criteria, nor can they weigh competing moral claims without explicit instruction.
On the other hand, proponents of machine cognition define thinking as a memory-based process and argue that intuition and feelings are not integral components of thought. Under this narrower definition, a system that can draw on stored data, identify patterns, and project outcomes is, in a meaningful sense, thinking. The disagreement, therefore, is not only empirical but also definitional — it depends on which conception of thinking one adopts.
Proponents of the idea that computers can think point to the dramatic evolution of computing capability as evidence. Computers were initially used simply for calculation and data manipulation. Their role has since expanded enormously: today, computers can project future trends in an industry, forecast a company's sales for the next quarter based on historical data, and detect anomalies in complex systems. Many argue that these capacities constitute thinking, because if computers did not perform these tasks, humans would have to — and often could not do so as accurately or efficiently (McGinnis, 2013).
In this view, computers think on behalf of humans and, in many domains, outperform them. Proponents go further, suggesting that computers are not merely capable of thinking but are in some respects better at it than humans, being free from cognitive biases, emotional interference, and fatigue. The Turing test, proposed by Alan Turing in 1950, remains a foundational reference point in these discussions: if a machine can respond to questions indistinguishably from a human, the argument goes, there is a meaningful sense in which it "thinks."
The "cannot think" position holds that a computer is useless without the operating system and programs designed by programmers and coders. The performance and capacity of computers is limited to the boundaries set by code, and those boundaries define the parameters of their work. Computers themselves cannot decide what to do or how to do it; they operate strictly within the logic their creators have embedded (O'Regan, 2012).
"Code-dependency limits computer autonomy"
"History and future trajectory of AI development"
"Formal questions guiding the investigation"
The development of computers to date offers a solid history that can help determine the path of their future evolution. Having a profound knowledge of the growth and development of computers serves as a basis for defining the next epoch of computing. The expanding role of computers across virtually every sector of human activity — from medical diagnosis to financial forecasting to autonomous vehicles — makes resolving this debate not merely an academic exercise but a practical and ethical imperative.
You’re 51% through this paper. Sign up to read the remaining 3 sections.
Sign Up Now — Instant Access Already a member? Log inAlways verify citation format against your institution’s current style guide requirements.