Boethius’ initial question in the Consolation of Philosophy is why God, who orders the natural universe beautifully, would allow human affairs to proceed in a chaotic fashion, even permitting the wicked to trample on the virtuous and go unpunished. Lady Philosophy responds that God governs everything well. What seem to limited human beings to be misfortunes can all be turned to good. This introduces the importance of human free will and a perennial question for Christian philosophers: If God foreknows future choices, can they be free? Human foreknowledge is a sign that the foreknown event does not happen voluntarily. God, being eternal, sees all time as present, and so divine foreknowledge does not impose or indicate any necessity that would conflict with free will. Boethius concludes by expressing theist compatibilism: Even free choices fall under the absolute sovereignty of God.

This chapter surveys some of the ways in which the Copenhagen interpretation of quantum mechanics has led to a various views of the world with spiritual and moral implications; the perspective of this chapter is that most of these views are not demanded by the actual theory and experiments of quantum mechanics.

The Cambridge Platonists’ philosophy of religion might be summed up as a tension between their commitment to the fixed nature of reason and goodness on the one hand and a commitment to freedom and distaste for all forms of tyranny and imposition on the other. This last chapter contends that the Cambridge Platonists not only acknowledge this tension, but embrace it, revelling in the paradoxical way that absolute fixedness and absolute freedom come together at the highest levels of being. This is made possible by what Stephen Darwall (writing specifically of Cudworth) has identified as an early theory of ‘practical reason’. This Platonic theory of practical reason draws together all the elements of the Cambridge Platonists’ outlook considered in earlier chapters – moral realism, divine communicative intent, and participatory epistemology, illustrating the extent to which this Platonic outlook binds together not only the thought of Whichcote, More, Cudworth and Smith but also runs through each of their views on different philosophical topics such as obligation, freedom and pedagogy.

The chapter views automatism in the light of the Victorian emphasis on the value of free will and individual responsibility. Daily life involved repeated practical synthesis of contradictory judgments about the determined, or automatic, and moral sources of action. Criminal court cases in which there was a defense of insanity exemplified the issues at stake in relating the disordered brain and the moral will. In the Victorian period, medical experts began to play a large part in legal judgments about insanity and criminal responsibility, and they articulated evidence for the involuntary, or automatic, form of insane actions. Public interest in these issues preceded and informed debate about automatism in philosophy and science. The chapter uses a spectacular 1854 case of multiple child murder by the children’s mother to shape discussion of the wider issues. The case both shows the complexity of social issues touching on automatism and offers insight into the imagination that accompanied Victorian fears about automatism replacing free will.

It may seem odd that Rudolf Carnap chose to include in his philosophy of science textbook a whole chapter on the problem of free will and determinism. The problem, or better a tangle of related problems, had exercised metaphysicians and ethicists for thousands of years. And by his own account Carnap engaged in neither metaphysics nor ethics and wanted to leave traditional philosophy behind him. So, on the face of it, the chapter presents us with a puzzle about Carnap as well as about free will and determinism. Rather than a full treatment of the traditional issues, the chapter was a response to a then recent paper by Hans Reichenbach that argued that the deterministic laws of classical physics preclude genuine choice as well as any meaningful freedom. Reichenbach goes on to argue that if, however, the fundamental laws are statistical as in quantum mechanics, both choice and freedom are restored. Carnap rejects both of Reichenbach’s conclusions and in the process addresses questions about how we are to understand laws of nature and causation as well as freedom and choice. This chapter examines and assesses Carnap’s arguments and asks whether they amount to a deviation from his anti-metaphysical stance.

In recent times, self-interest has been seen as the main driving force of behaviour and function in organisms. This is particularly evident in the concept of the selfish gene. However, as elaborated in this book, living systems strongly depend on cooperative behaviour, which is found everywhere in nature. All the way from millions of minute bacteria cooperating in the way they feed and grow, to massive whales talking with each other across oceans, organisms communicate with each other, and that communication is used as the glue of cooperation, even between distinct species. The idea of nature as ‘red in tooth and claw’ is at best a distorted perspective of the entirety of nature. However, in the grand scheme of things, both cooperation and competition are part of the story, and – whether wittingly or unwittingly – organisms form part of and interact with their ecosystems.

The view of living systems as machines is based on the idea of a fixed sequence of cause and effect: from genotype to phenotype, from genes to proteins and to life functions. This idea became the Central Dogma: the genotype maps to the phenotype in a one-way causative fashion, making us prisoners of our genes.

Living systems are characterised by intelligence. Treating organisms as gene-driven automata, blindly reacting to events, does not take account of their social or ecological being. Living systems anticipate the actions and reactions of other living systems. As in a chess game, anticipation can consider many options. Nevertheless, the chess analogy only gets us part of the way to understanding this characteristic of life. It is more like a chess game in which the players can create the rules, much as happens in a game of poker, in which anticipation is the key to success, including assessment of the other’s power of anticipation. Life is rule-creating, rather than rigidly rule-following. This does not mean there is no logic to what happens or how organisms behave; there is, and often it involves a clear strategy. But this is not regulated by genes. Much behaviour may be programmed, and much is learned; the logic, however, is situational (that is, dependent on circumstances) and subject to change. The ability to adapt to circumstances is an example of evolved functionality. Therefore, dogmatic models of life, seeking to reduce behaviour to little more than a set of algorithms, misunderstand the intelligence of organisms.

Where is the living mind that thinks? Culture is the matrix of the mind. Organisms owe their social and mental abilities to the ‘nesting’ of causation between all levels of their functioning. Higher levels mould what the lower levels can do. This is how living systems can use their flexibility, from cultural and linguistic variability to the water-based jiggling around of their molecules, to enable the evolution of rational and ethical social organisation. It is within this purposiveness that genuine freedom and responsibility are to be found.

Artificial intelligence (AI) is a tool created by living organisms, us humans. Like the hydraulic robots of the seventeenth century which inspired Descartes’ mechanical view of organisms, AI has become the latest in a list of mechanical metaphors for life. Yet it is just as limited, just as much a mistaken view of organisms. It views life as just processing further and further information faster and faster. Computers exist to process rapidly. That is their function, given to them by the humans who created them. Organisms use processing to help them create objectives, purpose.

Standard evolutionary theory represents genes as the target of evolution. But organisms may functionally develop without alterations in their DNA, and they may also buffer changes in the DNA to retain function. It is organisms that are the agents in the process of evolution. Outside a living system, DNA is inactive, dead. Furthermore, many significant transitions in evolution have not depended on new DNA mutations. They arose from the fusion or hybridisation of organisms with existing but different DNA. All the molecular processes in a living system are constrained by its purpose. Viewed this way, genes are the most constrained elements in organisms. Evolution of different species has occurred through extraordinarily creative and varied processes that include cooperation and fusion of existing species and the exchange of DNA and organelles. It is much more like nature using preformed tried and tested functionality than through slow gradual mutation. Evolution can occur in leaps and bounds.