Francis Bacon Science Essays

Francis Bacon (1561—1626)

Sir Francis Bacon (later Lord Verulam and the Viscount St. Albans) was an English lawyer, statesman, essayist, historian, intellectual reformer, philosopher, and champion of modern science. Early in his career he claimed “all knowledge as his province” and afterwards dedicated himself to a wholesale revaluation and re-structuring of traditional learning. To take the place of the established tradition (a miscellany of Scholasticism, humanism, and natural magic), he proposed an entirely new system based on empirical and inductive principles and the active development of new arts and inventions, a system whose ultimate goal would be the production of practical knowledge for “the use and benefit of men” and the relief of the human condition.

At the same time that he was founding and promoting this new project for the advancement of learning, Bacon was also moving up the ladder of state service. His career aspirations had been largely disappointed under Elizabeth I, but with the ascension of James his political fortunes rose. Knighted in 1603, he was then steadily promoted to a series of offices, including Solicitor General (1607), Attorney General (1613), and eventually Lord Chancellor (1618). While serving as Chancellor, he was indicted on charges of bribery and forced to leave public office. He then retired to his estate where he devoted himself full time to his continuing literary, scientific, and philosophical work. He died in 1626, leaving behind a cultural legacy that, for better or worse, includes most of the foundation for the triumph of technology and for the modern world as we currently know it.

Table of Contents

  1. Life and Political Career
  2. Thought and Writings
    1. Literary Works
    2. The New Atlantis
    3. Scientific and Philosophical Works
    4. The Great Instauration
    5. The Advancement of Learning
    6. The “Distempers” of Learning
    7. The Idea of Progress
    8. The Reclassification of Knowledge
    9. The New Organon
    10. The Idols
    11. Induction
  3. Reputation and Cultural Legacy
  4. References and Further Reading

1. Life and Political Career

Sir Francis Bacon (later Lord Verulam, the Viscount St. Albans, and Lord Chancellor of England) was born in London in 1561 to a prominent and well-connected family. His parents were Sir Nicholas Bacon, the Lord Keeper of the Seal, and Lady Anne Cooke, daughter of Sir Anthony Cooke, a knight and one-time tutor to the royal family. Lady Anne was a learned woman in her own right, having acquired Greek and Latin as well as Italian and French. She was a sister-in-law both to Sir Thomas Hoby, the esteemed English translator of Castiglione, and to Sir William Cecil (later Lord Burghley), Lord Treasurer, chief counselor to Elizabeth I, and from 1572-1598 the most powerful man in England.

Bacon was educated at home at the family estate at Gorhambury in Herfordshire. In 1573, at the age of just twelve, he entered Trinity College, Cambridge, where the stodgy Scholastic curriculum triggered his lifelong opposition to Aristotelianism (though not to the works of Aristotle himself).

In 1576 Bacon began reading law at Gray’s Inn. Yet only a year later he interrupted his studies in order to take a position in the diplomatic service in France as an assistant to the ambassador. In 1579, while he was still in France, his father died, leaving him (as the second son of a second marriage and the youngest of six heirs) virtually without support. With no position, no land, no income, and no immediate prospects, he returned to England and resumed the study of law.

Bacon completed his law degree in 1582, and in 1588 he was named lecturer in legal studies at Gray’s Inn. In the meantime, he was elected to Parliament in 1584 as a member for Melcombe in Dorsetshire. He would remain in Parliament as a representative for various constituencies for the next 36 years.

In 1593 his blunt criticism of a new tax levy resulted in an unfortunate setback to his career expectations, the Queen taking personal offense at his opposition. Any hopes he had of becoming Attorney General or Solicitor General during her reign were dashed, though Elizabeth eventually relented to the extent of appointing Bacon her Extraordinary Counsel in 1596.

It was around this time that Bacon entered the service of Robert Devereux, the Earl of Essex, a dashing courtier, soldier, plotter of intrigue, and sometime favorite of the Queen. No doubt Bacon viewed Essex as a rising star and a figure who could provide a much-needed boost to his own sagging career. Unfortunately, it was not long before Essex’s own fortunes plummeted following a series of military and political blunders culminating in a disastrous coup attempt. When the coup plot failed, Devereux was arrested, tried, and eventually executed, with Bacon, in his capacity as Queen’s Counsel, playing a vital role in the prosecution of the case.

In 1603, James I succeeded Elizabeth, and Bacon’s prospects for advancement dramatically improved. After being knighted by the king, he swiftly ascended the ladder of state and from 1604-1618 filled a succession of high-profile advisory positions:

  • 1604 – Appointed King’s Counsel.
  • 1607 – Named Solicitor General.
  • 1608 – Appointed Clerk of the Star Chamber.
  • 1613 – Appointed Attorney General.
  • 1616 – Made a member of the Privy Council.
  • 1617 – Appointed Lord Keeper of the Royal Seal (his father’s former office).
  • 1618 – Made Lord Chancellor.

As Lord Chancellor, Bacon wielded a degree of power and influence that he could only have imagined as a young lawyer seeking preferment. Yet it was at this point, while he stood at the very pinnacle of success, that he suffered his great Fall. In 1621 he was arrested and charged with bribery. After pleading guilty, he was heavily fined and sentenced to a prison term in the Tower of London. Although the fine was later waived and Bacon spent only four days in the Tower, he was never allowed to sit in Parliament or hold political office again.

The entire episode was a terrible disgrace for Bacon personally and a stigma that would cling to and injure his reputation for years to come. As various chroniclers of the case have pointed out, the accepting of gifts from suppliants in a law suit was a common practice in Bacon’s day, and it is also true that Bacon ended up judging against the two petitioners who had offered the fateful bribes. Yet the damage was done, and Bacon to his credit accepted the judgment against him without excuse. According to his own Essayes, or Counsels, he should have known and done better. (In this respect it is worth noting that during his forced retirement, Bacon revised and republished the Essayes, injecting an even greater degree of shrewdness into a collection already notable for its worldliness and keen political sense.) Macaulay in a lengthy essay declared Bacon a great intellect but (borrowing a phrase from Bacon’s own letters) a “most dishonest man,” and more than one writer has characterized him as cold, calculating, and arrogant. Yet whatever his flaws, even his enemies conceded that during his trial he accepted his punishment nobly, and moved on.

Bacon spent his remaining years working with renewed determination on his lifelong project: the reform of learning and the establishment of an intellectual community dedicated to the discovery of scientific knowledge for the “use and benefit of men.” The former Lord Chancellor died on 9 April, 1626, supposedly of a cold or pneumonia contracted while testing his theory of the preservative and insulating properties of snow.

2. Thought and Writings

In a way Bacon’s descent from political power was a fortunate fall, for it represented a liberation from the bondage of public life resulting in a remarkable final burst of literary and scientific activity. As Renaissance scholar and Bacon expert Brian Vickers has reminded us, Bacon’s earlier works, impressive as they are, were essentially products of his “spare time.” It was only during his last five years that he was able to concentrate exclusively on writing and produce, in addition to a handful of minor pieces:

  • Two substantial volumes of history and biography, The History of the Reign of King Henry the Seventh and The History of the Reign of King Henry the Eighth.
  • De Augmentis Scientiarum (an expanded Latin version of his earlier Advancement of Learning).
  • The final 1625 edition of his Essayes, or Counsels.
  • The remarkable Sylva Sylvarum, or A Natural History in Ten Centuries (a curious hodge-podge of scientific experiments, personal observations, speculations, ancient teachings, and analytical discussions on topics ranging from the causes of hiccups to explanations for the shortage of rain in Egypt). Artificially divided into ten “centuries” (that is, ten chapters, each consisting of one hundred items), the work was apparently intended to be included in Part Three of the Magna Instauratio.
  • His utopian science-fiction novel The New Atlantis, which was published in unfinished form a year after his death.
  • Various parts of his unfinished magnum opus Magna Instauratio (or Great Instauration), including a “Natural History of Winds” and a “Natural History of Life and Death.”

These late productions represented the capstone of a writing career that spanned more than four decades and encompassed virtually an entire curriculum of literary, scientific, and philosophical studies.

a. Literary Works

Despite the fanatical claims (and very un-Baconian credulity) of a few admirers, it is a virtual certainty that Bacon did not write the works traditionally attributed to William Shakespeare. Even so, the Lord Chancellor’s high place in the history of English literature as well as his influential role in the development of English prose style remain well-established and secure. Indeed even if Bacon had produced nothing else but his masterful Essayes (first published in 1597 and then revised and expanded in 1612 and 1625), he would still rate among the top echelon of 17th-century English authors. And so when we take into account his other writings, e.g., his histories, letters, and especially his major philosophical and scientific works, we must surely place him in the first rank of English literature’s great men of letters and among its finest masters (alongside names like Johnson, Mill, Carlyle, and Ruskin) of non-fiction prose.

Bacon’s style, though elegant, is by no means as simple as it seems or as it is often described. In fact it is actually a fairly complex affair that achieves its air of ease and clarity more through its balanced cadences, natural metaphors, and carefully arranged symmetries than through the use of plain words, commonplace ideas, and straightforward syntax. (In this connection it is noteworthy that in the revised versions of the essays Bacon seems to have deliberately disrupted many of his earlier balanced effects to produce a style that is actually more jagged and, in effect, more challenging to the casual reader.)

Furthermore, just as Bacon’s personal style and living habits were prone to extravagance and never particularly austere, so in his writing he was never quite able to resist the occasional grand word, magniloquent phrase, or orotund effect. (As Dr. Johnson observed, “A dictionary of the English language might be compiled from Bacon’s works alone.”) Bishop Sprat in his 1667 History of the Royal Society honored Bacon and praised the society membership for supposedly eschewing fine words and fancy metaphors and adhering instead to a natural lucidity and “mathematical plainness.” To write in such a way, Sprat suggested, was to follow true, scientific, Baconian principles. And while Bacon himself often expressed similar sentiments (praising blunt expression while condemning the seductions of figurative language), a reader would be hard pressed to find many examples of such spare technique in Bacon’s own writings. Of Bacon’s contemporary readers, at least one took exception to the view that his writing represented a perfect model of plain language and transparent meaning. After perusing the New Organon, King James (to whom Bacon had proudly dedicated the volume) reportedly pronounced the work “like the peace of God, which passeth all understanding.”

b. The New Atlantis

As a work of narrative fiction, Bacon’s novel New Atlantis may be classified as a literary rather than a scientific (or philosophical) work, though it effectively belongs to both categories. According to Bacon’s amanuensis and first biographer William Rawley, the novel represents the first part (showing the design of a great college or institute devoted to the interpretation of nature) of what was to have been a longer and more detailed project (depicting the entire legal structure and political organization of an ideal commonwealth). The work thus stands in the great tradition of the utopian-philosophical novel that stretches from Plato and More to Huxley and Skinner.

The thin plot or fable is little more than a fictional shell to contain the real meat of Bacon’s story: the elaborate description of Salomon’s House (also known as the College of the Six Days Works), a centrally organized research facility where specially trained teams of investigators collect data, conduct experiments, and (most importantly from Bacon’s point of view) apply the knowledge they gain to produce “things of use and practice for man’s life.” These new arts and inventions they eventually share with the outside world.

In terms of its sci-fi adventure elements, the New Atlantis is about as exciting as a government or university re-organization plan. But in terms of its historical impact, the novel has proven to be nothing less than revolutionary, having served not only as an effective inspiration and model for the British Royal Society, but also as an early blueprint and prophecy of the modern research center and international scientific community.

c. Scientific and Philosophical Works

It is never easy to summarize the thought of a prolific and wide-ranging philosopher. Yet Bacon somewhat simplifies the task by his own helpful habits of systematic classification and catchy mnemonic labeling. (Thus, for example, there are three “distempers” – or diseases – of learning,” eleven errors or “peccant humours,” four “Idols,” three primary mental faculties and categories of knowledge, etc.) In effect, by following Bacon’s own methods it is possible to produce a convenient outline or overview of his main scientific and philosophical ideas.

d. The Great Instauration

As early as 1592, in a famous letter to his uncle, Lord Burghley, Bacon declared “all knowledge” to be his province and vowed his personal commitment to a plan for the full-scale rehabilitation and reorganization of learning. In effect, he dedicated himself to a long-term project of intellectual reform, and the balance of his career can be viewed as a continuing effort to make good on that pledge. In 1620, while he was still at the peak of his political success, he published the preliminary description and plan for an enormous work that would fully answer to his earlier declared ambitions. The work, dedicated to James, was to be called Magna Instauratio (that is, the “grand edifice” or Great Instauration), and it would represent a kind of summa or culmination of all Bacon’s thought on subjects ranging from logic and epistemology to practical science (or what in Bacon’s day was called “natural philosophy,” the word science being then but a general synonym for “wisdom” or “learning”).

Like several of Bacon’s projects, the Instauratio in its contemplated form was never finished. Of the intended six parts, only the first two were completed, while the other portions were only partly finished or barely begun. Consequently, the work as we have it is less like the vast but well-sculpted monument that Bacon envisioned than a kind of philosophical miscellany or grab-bag. Part I of the project, De Dignitate et Augmentis Scientiarum (“Nine Books of the Dignity and Advancement of Learning”), was published in 1623. It is basically an enlarged version of the earlier Proficience and Advancement of Learning, which Bacon had presented to James in 1605. Part II, the Novum Organum (or “New Organon”) provides the author’s detailed explanation and demonstration of the correct procedure for interpreting nature. It first appeared in 1620. Together these two works present the essential elements of Bacon’s philosophy, including most of the major ideas and principles that we have come to associate with the terms “Baconian” and “Baconianism.”

e. The Advancement of Learning

Relatively early in his career Bacon judged that, owing mainly to an undue reverence for the past (as well as to an excessive absorption in cultural vanities and frivolities), the intellectual life of Europe had reached a kind of impasse or standstill. Yet he believed there was a way beyond this stagnation if persons of learning, armed with new methods and insights, would simply open their eyes and minds to the world around them. This at any rate was the basic argument of his seminal 1605 treatise The Proficience and Advancement of Learning, arguably the first important philosophical work to be published in English.

It is in this work that Bacon sketched out the main themes and ideas that he continued to refine and develop throughout his career, beginning with the notion that there are clear obstacles to or diseases of learning that must be avoided or purged before further progress is possible.

f. The “Distempers” of Learning

“There be therefore chiefly three vanities in studies, whereby learning hath been most traduced.” Thus Bacon, in the first book of the Advancement. He goes on to refer to these vanities as the three “distempers” of learning and identifies them (in his characteristically memorable fashion) as “fantastical learning,” “contentious learning,” and “delicate learning” (alternatively identified as “vain imaginations,” “vain altercations,” and “vain affectations”).

By fantastical learning (“vain imaginations”) Bacon had in mind what we would today call pseudo-science: i.e., a collection of ideas that lack any real or substantial foundation, that are professed mainly by occultists and charlatans, that are carefully shielded from outside criticism, and that are offered largely to an audience of credulous true believers. In Bacon’s day such “imaginative science” was familiar in the form of astrology, natural magic, and alchemy.

By contentious learning (“vain altercations”) Bacon was referring mainly to Aristotelian philosophy and theology and especially to the Scholastic tradition of logical hair-splitting and metaphysical quibbling. But the phrase applies to any intellectual endeavor in which the principal aim is not new knowledge or deeper understanding but endless debate cherished for its own sake.

Delicate learning (“vain affectations”) was Bacon’s label for the new humanism insofar as (in his view) it seemed concerned not with the actual recovery of ancient texts or the retrieval of past knowledge but merely with the revival of Ciceronian rhetorical embellishments and the reproduction of classical prose style. Such preoccupation with “words more than matter,” with “choiceness of phrase” and the “sweet falling of clauses” – in short, with style over substance – seemed to Bacon (a careful stylist in his own right) the most seductive and decadent literary vice of his age.

Here we may note that from Bacon’s point of view the “distempers” of learning share two main faults:

  1. Prodigal ingenuity – i.e., each distemper represents a lavish and regrettable waste of talent, as inventive minds that might be employed in more productive pursuits exhaust their energy on trivial or puerile enterprises instead.
  2. Sterile results – i.e., instead of contributing to the discovery of new knowledge (and thus to a practical “advancement of learning” and eventually to a better life for all), the distempers of learning are essentially exercises in personal vainglory that aim at little more than idle theorizing or the preservation of older forms of knowledge.

In short, in Bacon’s view the distempers impede genuine intellectual progress by beguiling talented thinkers into fruitless, illusory, or purely self-serving ventures. What is needed – and this is a theme reiterated in all his later writings on learning and human progress – is a program to re-channel that same creative energy into socially useful new discoveries.

g. The Idea of Progress

Though it is hard to pinpoint the birth of an idea, for all intents and purposes the modern idea of technological “progress” (in the sense of a steady, cumulative, historical advance in applied scientific knowledge) began with Bacon’s The Advancement of Learning and became fully articulated in his later works.

Knowledge is power, and when embodied in the form of new technical inventions and mechanical discoveries it is the force that drives history – this was Bacon’s key insight. In many respects this idea was his single greatest invention, and it is all the more remarkable for its having been conceived and promoted at a time when most English and European intellectuals were either reverencing the literary and philosophical achievements of the past or deploring the numerous signs of modern degradation and decline. Indeed, while Bacon was preaching progress and declaring a brave new dawn of scientific advance, many of his colleagues were persuaded that the world was at best creaking along towards a state of senile immobility and eventual darkness. “Our age is iron, and rusty too,” wrote John Donne, contemplating the signs of universal decay in a poem published six years after Bacon’s Advancement.

That history might in fact be progressive, i.e., an onward and upward ascent – and not, as Aristotle had taught, merely cyclical or, as cultural pessimists from Hesiod to Spengler have supposed, a descending or retrograde movement, became for Bacon an article of secular faith which he propounded with evangelical force and a sense of mission. In the Advancement, the idea is offered tentatively, as a kind of hopeful hypothesis. But in later works such as the New Organon, it becomes almost a promised destiny: Enlightenment and a better world, Bacon insists, lie within our power; they require only the cooperation of learned citizens and the active development of the arts and sciences.

h. The Reclassification of Knowledge

In Book II of De Dignitate (his expanded version of the Advancement) Bacon outlines his scheme for a new division of human knowledge into three primary categories: History, Poesy, and Philosophy (which he associates respectively with the three fundamental “faculties” of mind – memory, imagination, and reason). Although the exact motive behind this reclassification remains unclear, one of its main consequences seems unmistakable: it effectively promotes philosophy – and especially Baconian science – above the other two branches of knowledge, in essence defining history as the mere accumulation of brute facts, while reducing art and imaginative literature to the even more marginal status of “feigned history.”

Evidently Bacon believed that in order for a genuine advancement of learning to occur, the prestige of philosophy (and particularly natural philosophy) had to be elevated, while that of history and literature (in a word, humanism) needed to be reduced. Bacon’s scheme effectively accomplishes this by making history (the domain of fact, i.e., of everything that has happened) a virtual sub-species of philosophy (the domain of realistic possibility, i.e., of everything that can theoretically or actually occur). Meanwhile, poesy (the domain of everything that is imaginable or conceivable) is set off to the side as a mere illustrative vehicle. In essence, it becomes simply a means of recreating actual scenes or events from the past (as in history plays or heroic poetry) or of allegorizing or dramatizing new ideas or future possibilities (as in Bacon’s own interesting example of “parabolic poesy,” the New Atlantis.)

i. The New Organon

To the second part of his Great Instauration Bacon gave the title New Organon (or “True Directions concerning the Interpretation of Nature”). The Greek word organon means “instrument” or “tool,” and Bacon clearly felt he was supplying a new instrument for guiding and correcting the mind in its quest for a true understanding of nature. The title also glances at Aristotle’s Organon (a collection that includes his Categories and his Prior and Posterior Analytics) and thus suggests a “new instrument” destined to transcend or replace the older, no longer serviceable one. (This notion of surpassing ancient authority is aptly illustrated on the frontispiece of the 1620 volume containing the New Organon by a ship boldly sailing beyond the mythical pillars of Hercules, which supposedly marked the end of the known world.)

The New Organon is presented not in the form of a treatise or methodical demonstration but as a series of aphorisms, a technique that Bacon came to favor as less legislative and dogmatic and more in the true spirit of scientific experiment and critical inquiry. Combined with his gift for illustrative metaphor and symbol, the aphoristic style makes the New Organon in many places the most readable and literary of all Bacon’s scientific and philosophical works.

j. The Idols

In Book I of the New Organon (Aphorisms 39-68), Bacon introduces his famous doctrine of the “idols.” These are characteristic errors, natural tendencies, or defects that beset the mind and prevent it from achieving a full and accurate understanding of nature. Bacon points out that recognizing and counteracting the idols is as important to the study of nature as the recognition and refutation of bad arguments is to logic. Incidentally, he uses the word “idol” – from the Greek eidolon (“image” or “phantom”) – not in the sense of a false god or heathen deity but rather in the sense employed in Epicurean physics. Thus a Baconian idol is a potential deception or source of misunderstanding, especially one that clouds or confuses our knowledge of external reality.

Bacon identifies four different classes of idol. Each arises from a different source, and each presents its own special hazards and difficulties.

1. The Idols of the Tribe.

These are the natural weaknesses and tendencies common to human nature. Because they are innate, they cannot be completely eliminated, but only recognized and compensated for. Some of Bacon’s examples are:

  • Our senses – which are inherently dull and easily deceivable. (Which is why Bacon prescribes instruments and strict investigative methods to correct them.)
  • Our tendency to discern (or even impose) more order in phenomena than is actually there. As Bacon points out, we are apt to find similitude where there is actually singularity, regularity where there is actually randomness, etc.
  • Our tendency towards “wishful thinking.” According to Bacon, we have a natural inclination to accept, believe, and even prove what we would prefer to be true.
  • Our tendency to rush to conclusions and make premature judgments (instead of gradually and painstakingly accumulating evidence).

2. The Idols of the Cave.

Unlike the idols of the tribe, which are common to all human beings, those of the cave vary from individual to individual. They arise, that is to say, not from nature but from culture and thus reflect the peculiar distortions, prejudices, and beliefs that we are all subject to owing to our different family backgrounds, childhood experiences, education, training, gender, religion, social class, etc. Examples include:

  • Special allegiance to a particular discipline or theory.
  • High esteem for a few select authorities.
  • A “cookie-cutter” mentality – that is, a tendency to reduce or confine phenomena within the terms of our own narrow training or discipline.

3. The Idols of the Market Place.

These are hindrances to clear thinking that arise, Bacon says, from the “intercourse and association of men with each other.” The main culprit here is language, though not just common speech, but also (and perhaps particularly) the special discourses, vocabularies, and jargons of various academic communities and disciplines. He points out that “the idols imposed by words on the understanding are of two kinds”: “they are either names of things that do not exist” (e.g., the crystalline spheres of Aristotelian cosmology) or faulty, vague, or misleading names for things that do exist (according to Bacon, abstract qualities and value terms – e.g., “moist,” “useful,” etc. – can be a particular source of confusion).

4. The Idols of the Theatre.

Like the idols of the cave, those of the theatre are culturally acquired rather than innate. And although the metaphor of a theatre suggests an artificial imitation of truth, as in drama or fiction, Bacon makes it clear that these idols derive mainly from grand schemes or systems of philosophy – and especially from three particular types of philosophy:

  • Sophistical Philosophy – that is, philosophical systems based only on a few casually observed instances (or on no experimental evidence at all) and thus constructed mainly out of abstract argument and speculation. Bacon cites Scholasticism as a conspicuous example.
  • Empirical Philosophy – that is, a philosophical system ultimately based on a single key insight (or on a very narrow base of research), which is then erected into a model or paradigm to explain phenomena of all kinds. Bacon cites the example of William Gilbert, whose experiments with the lodestone persuaded him that magnetism operated as the hidden force behind virtually all earthly phenomena.
  • Superstitious Philosophy – this is Bacon’s phrase for any system of thought that mixes theology and philosophy. He cites Pythagoras and Plato as guilty of this practice, but also points his finger at pious contemporary efforts, similar to those of Creationists today, to found systems of natural philosophy on Genesis or the book of Job.

k. Induction

At the beginning of the Magna Instauratio and in Book II of the New Organon, Bacon introduces his system of “true and perfect Induction,” which he proposes as the essential foundation of scientific method and a necessary tool for the proper interpretation of nature. (This system was to have been more fully explained and demonstrated in Part IV of the Instauratio in a section titled “The Ladder of the Intellect,” but unfortunately the work never got beyond an introduction.)

According to Bacon, his system differs not only from the deductive logic and mania for syllogisms of the Schoolmen, but also from the classic induction of Aristotle and other logicians. As Bacon explains it, classic induction proceeds “at once from . . . sense and particulars up to the most general propositions” and then works backward (via deduction) to arrive at intermediate propositions. Thus, for example, from a few observations one might conclude (via induction) that “all new cars are shiny.” One would then be entitled to proceed backward from this general axiom to deduce such middle-level axioms as “all new Lexuses are shiny,” “all new Jeeps are shiny,” etc. – axioms that presumably would not need to be verified empirically since their truth would be logically guaranteed as long as the original generalization (“all new cars are shiny”) is true.

As Bacon rightly points out, one problem with this procedure is that if the general axioms prove false, all the intermediate axioms may be false as well. All it takes is one contradictory instance (in this case one new car with a dull finish) and “the whole edifice tumbles.” For this reason Bacon prescribes a different path. His method is to proceed “regularly and gradually from one axiom to another, so that the most general are not reached till the last.” In other words, each axiom – i.e., each step up “the ladder of intellect” – is thoroughly tested by observation and experimentation before the next step is taken. In effect, each confirmed axiom becomes a foothold to a higher truth, with the most general axioms representing the last stage of the process.

Thus, in the example described, the Baconian investigator would be obliged to examine a full inventory of new Chevrolets, Lexuses, Jeeps, etc., before reaching any conclusions about new cars in general. And while Bacon admits that such a method can be laborious, he argues that it eventually produces a stable edifice of knowledge instead of a rickety structure that collapses with the appearance of a single disconfirming instance. (Indeed, according to Bacon, when one follows his inductive procedure, a negative instance actually becomes something to be welcomed rather than feared. For instead of threatening an entire assembly, the discovery of a false generalization actually saves the investigator the trouble of having to proceed further in a particular direction or line of inquiry. Meanwhile the structure of truth that he has already built remains intact.)

Is Bacon’s system, then, a sound and reliable procedure, a strong ladder leading from carefully observed particulars to true and “inevitable” conclusions? Although he himself firmly believed in the utility and overall superiority of his method, many of his commentators and critics have had doubts. For one thing, it is not clear that the Baconian procedure, taken by itself, leads conclusively to any general propositions, much less to scientific principles or theoretical statements that we can accept as universally true. For at what point is the Baconian investigator willing to make the leap from observed particulars to abstract generalizations? After a dozen instances? A thousand? The fact is, Bacon’s method provides nothing to guide the investigator in this determination other than sheer instinct or professional judgment, and thus the tendency is for the investigation of particulars – the steady observation and collection of data – to go on continuously, and in effect endlessly.

One can thus easily imagine a scenario in which the piling up of instances becomes not just the initial stage in a process, but the very essence of the process itself; in effect, a zealous foraging after facts (in the New Organon Bacon famously compares the ideal Baconian researcher to a busy bee) becomes not only a means to knowledge, but an activity vigorously pursued for its own sake. Every scientist and academic person knows how tempting it is to put off the hard work of imaginative thinking in order to continue doing some form of rote research. Every investigator knows how easy it is to become wrapped up in data – with the unhappy result that one’s intended ascent up the Baconian ladder gets stuck in mundane matters of fact and never quite gets off the ground.

It was no doubt considerations like these that prompted the English physician (and neo-Aristotelian) William Harvey, of circulation-of-the-blood fame, to quip that Bacon wrote of natural philosophy “like a Lord Chancellor” – indeed like a politician or legislator rather than a practitioner. The assessment is just to the extent that Bacon in the New Organon does indeed prescribe a new and extremely rigid procedure for the investigation of nature rather than describe the more or less instinctive and improvisational – and by no means exclusively empirical – method that Kepler, Galileo, Harvey himself, and other working scientists were actually employing. In fact, other than Tycho Brahe, the Danish astronomer who, overseeing a team of assistants, faithfully observed and then painstakingly recorded entire volumes of astronomical data in tidy, systematically arranged tables, it is doubtful that there is another major figure in the history of science who can be legitimately termed an authentic, true-blooded Baconian. (Darwin, it is true, claimed that The Origin of Species was based on “Baconian principles.” However, it is one thing to collect instances in order to compare species and show a relationship among them; it is quite another to theorize a mechanism, namely evolution by mutation and natural selection, that elegantly and powerfully explains their entire history and variety.)

Science, that is to say, does not, and has probably never advanced according to the strict, gradual, ever-plodding method of Baconian observation and induction. It proceeds instead by unpredictable – and often intuitive and even (though Bacon would cringe at the word) imaginative – leaps and bounds. Kepler used Tycho’s scrupulously gathered data to support his own heart-felt and even occult belief that the movements of celestial bodies are regular and symmetrical, composing a true harmony of the spheres. Galileo tossed unequal weights from the Leaning Tower as a mere public demonstration of the fact (contrary to Aristotle) that they would fall at the same rate. He had long before satisfied himself that this would happen via the very un-Bacon-like method of mathematical reasoning and deductive thought-experiment. Harvey, by a similar process of quantitative analysis and deductive logic, knew that the blood must circulate, and it was only to provide proof of this fact that he set himself the secondary task of amassing empirical evidence and establishing the actual method by which it did so.

One could enumerate – in true Baconian fashion – a host of further instances. But the point is already made: advances in scientific knowledge have not been achieved for the most part via Baconian induction (which amounts to a kind of systematic and exhaustive survey of nature supposedly leading to ultimate insights) but rather by shrewd hints and guesses – in a word by hypotheses – that are then either corroborated or (in Karl Popper’s important term) falsified by subsequent research.

In summary, then, it can be said that Bacon underestimated the role of imagination and hypothesis (and overestimated the value of minute observation and bee-like data collection) in the production of new scientific knowledge. And in this respect it is true that he wrote of science like a Lord Chancellor, regally proclaiming the benefits of his own new and supposedly foolproof technique instead of recognizing and adapting procedures that had already been tested and approved. On the other hand, it must be added that Bacon did not present himself (or his method) as the final authority on the investigation of nature or, for that matter, on any other topic or issue relating to the advance of knowledge. By his own admission, he was but the Buccinator, or “trumpeter,” of such a revolutionary advance – not the founder or builder of a vast new system, but only the herald or announcing messenger of a new world to come.

3. Reputation and Cultural Legacy

If anyone deserves the title “universal genius” or “Renaissance man” (accolades traditionally reserved for those who make significant, original contributions to more than one professional discipline or area of learning), Bacon clearly merits the designation. Like Leonardo and Goethe, he produced important work in both the arts and sciences. Like Cicero, Marcus Aurelius, Benjamin Franklin, and Thomas Jefferson, he combined wide and ample intellectual and literary interests (from practical rhetoric and the study of nature to moral philosophy and educational reform) with a substantial political career. Like his near contemporary Machiavelli, he excelled in a variety of literary genres – from learned treatises to light entertainments – though, also like the great Florentine writer, he thought of himself mainly as a political statesman and practical visionary: a man whose primary goal was less to obtain literary laurels for himself than to mold the agendas and guide the policy decisions of powerful nobles and heads of state.

In our own era Bacon would be acclaimed as a “public intellectual,” though his personal record of service and authorship would certainly dwarf the achievements of most academic and political leaders today. Like nearly all public figures, he was controversial. His chaplain and first biographer William Rawley declared him “the glory of his age and nation” and portrayed him as an angel of enlightenment and social vision. His admirers in the Royal Society (an organization that traced its own inspiration and lineage to the Lord Chancellor’s writings) viewed him as nothing less than the daring originator of a new intellectual era. The poet Abraham Cowley called him a “Moses” and portrayed him as an exalted leader who virtually all by himself had set learning on a bold, firm, and entirely new path:

Bacon at last, a mighty Man, arose

Whom a wise King and Nature chose

Lord Chancellour of both their Lawes. . . .

The barren Wilderness he past,

Did on the very Border stand

Of the great promis’d Land,

And from the Mountains Top of his Exalted Wit,

Saw it himself and shew’d us it. . . .

Similarly adulatory if more prosaic assessments were offered by learned contemporaries or near contemporaries from Descartes and Gassendi to Robert Hooke and Robert Boyle. Leibniz was particularly generous and observed that, compared to Bacon’s philosophical range and lofty vision, even a great genius like Descartes “creeps on the ground.” On the other hand, Spinoza, another close contemporary, dismissed Bacon’s work (especially his inductive theories) completely and in effect denied that the supposedly grand philosophical revolution decreed by Bacon, and welcomed by his partisans, had ever occurred.

The response of the later Enlightenment was similarly divided, with a majority of thinkers lavishly praising Bacon while a dissenting minority castigated or even ridiculed him. The French encyclopedists Jean d’Alembert and Denis Diderot sounded the keynote of this 18th-century re-assessment, essentially hailing Bacon as a founding father of the modern era and emblazoning his name on the front page of the Encyclopedia. In a similar gesture, Kant dedicated his Critique of Pure Reason to Bacon and likewise saluted him as an early architect of modernity. Hegel, on the other hand, took a dimmer view. In his “Lectures on the History of Philosophy” he congratulated Bacon on his worldly sophistication and shrewdness of mind, but ultimately judged him to be a person of depraved character and a mere “coiner of mottoes.” In his view, the Lord Chancellor was a decidedly low-minded (read typically English and utilitarian) philosopher whose instruction was fit mainly for “civil servants and shopkeepers.”

Probably the fullest and most perceptive Enlightenment account of Bacon’s achievement and place in history was Voltaire’s laudatory essay in his Letters on the English. After referring to Bacon as the father of experimental philosophy, he went on to assess his literary merits, judging him to be an elegant, instructive, and witty writer, though too much given to “fustian.”

Bacon’s reputation and legacy remain controversial even today. While no historian of science or philosophy doubts his immense importance both as a proselytizer on behalf of the empirical method and as an advocate of sweeping intellectual reform, opinion varies widely as to the actual social value and moral significance of the ideas that he represented and effectively bequeathed to us. The issue basically comes down to one’s estimate of or sympathy for the entire Enlightenment/Utilitarian project. Those who for the most part share Bacon’s view that nature exists mainly for human use and benefit, and who furthermore endorse his opinion that scientific inquiry should aim first and foremost at the amelioration of the human condition and the “relief of man’s estate,” generally applaud him as a great social visionary. On the other hand, those who view nature as an entity in its own right, a higher-order estate of which the human community is only a part, tend to perceive him as a kind of arch-villain – the evil originator of the idea of science as the instrument of global imperialism and technological conquest.

On the one side, then, we have figures like the anthropologist and science writer Loren Eiseley, who portrays Bacon (whom he calls “the man who saw through time”) as a kind of Promethean culture hero. He praises Bacon as the great inventor of the idea of science as both a communal enterprise and a practical discipline in the service of humanity. On the other side, we have writers, from Theodor Adorno, Max Horkheimer, and Lewis Mumford to, more recently, Jeremy Rifkin and eco-feminist Carolyn Merchant, who have represented him as one of the main culprits behind what they perceive as western science’s continuing legacy of alienation, exploitation, and ecological oppression.

Clearly somewhere in between this ardent Baconolotry on the one hand and strident demonization of Bacon on the other lies the real Lord Chancellor: a Colossus with feet of clay. He was by no means a great system-builder (indeed his Magna Instauratio turned out to be less of a “grand edifice” than a magnificent heap) but rather, as he more modestly portrayed himself, a great spokesman for the reform of learning and a champion of modern science. In the end we can say that he was one of the giant figures of intellectual history – and as brilliant, and flawed, a philosopher as he was a statesman.

4. References and Further Reading

Note: The standard edition of Bacon’s Works and Letters and Life is still that of James Spedding, et. al., (14 volumes, London, 1857- 1874), also available in a facsimile reprint (Stuttgart, 1989).

  • Adorno, Theodor and Max Horkheimer. The Dialectic of Enlightenment. 1944.
  • Anderson, F. H. Francis Bacon: His Career and His Thought. Los Angeles: University of Southern California Press, 1962.
  • Bury, J.B. The Idea of Progress. London: MacMillan, 1920.
  • Eiseley, Loren. The Man Who Saw Through Time. New York: Scribners, 1973.
  • Fish, Stanley E. “The Experience of Bacon’s Essays.” In Self-Consuming Artifacts. Berkeley, CA: University of California Press, 1972.
  • Gaukroger, Stephen. Francis Bacon and the Transformation of Early-modern Philosophy. Cambridge, U.K. ; New York : Cambridge University Press, 2001.
  • Merchant, Carolyn. The Death of Nature: Women, Ecology, and the Scientific Revolution. San Francisco: Harper and Row, 1980.
  • Mumford, Lewis. Technics and Civilization. 1934.
  • Lampert, Laurence. Nietzsche and Modern Times : A Study of Bacon, Descartes, and Nietzsche. New Haven, Conn.: Yale University Press, 1993.
  • Rifkin, Jeremy. Biosphere Politics. New York: Crown, 1991.
  • Rossi, Paolo. Francis Bacon: from Magic to Science. Trans. Sacha Rabinovitch. Chicago: University of Chicago Press, 1968.
  • Vickers, Brian. Francis Bacon. Harlow, UK: Longman Group, 1978.
  • Vickers, Brian, Ed. Francis Bacon. New York : Oxford University Press, 1996.
  • Whitney, Charles. Francis Bacon and Modernity. New Haven, CN: Yale University Press, 1986.

Author Information

David Simpson
Email: dsimpson@condor.depaul.edu
DePaul University
U. S. A.

1. Biography

Francis Bacon was born January, 22, 1561, the second child of Sir Nicholas Bacon (Lord Keeper of the Seal) and his second wife Lady Anne Cooke Bacon, daughter of Sir Anthony Cooke, tutor to Edward VI and one of the leading humanists of the age. Lady Anne was highly erudite: she not only had a perfect command of Greek and Latin, but was also competent in Italian and French. Together with his older brother Anthony, Francis grew up in a context determined by political power, humanist learning, and Calvinist zeal. His father had built a new house in Gorhambury in the 1560s, and Bacon was educated there for some seven years; later, along with Anthony, he went to Trinity College, Cambridge (1573–5), where he sharply criticized the scholastic methods of academic training. Their tutor was John Whitgift, in later life Archbishop of Canterbury. Whitgift provided the brothers with classical texts for their studies: Cicero, Demosthenes, Hermogenes, Livy, Sallust, and Xenophon (Peltonen 2007). Bacon began his studies at Gray's Inn in London in 1576; but from 1577 to 1578 he accompanied Sir Amias Paulet, the English ambassador, on his mission in Paris. According to Peltonen (2007):

During his stay in France, perhaps in autumn 1577, Bacon once visited England as the bearer of diplomatic post, delivering letters to Walsingham, Burghley, Leicester, and to the Queen herself.

When his father died in 1579, he returned to England. Bacon's small inheritance brought him into financial difficulties and since his maternal uncle, Lord Burghley, did not help him to get a lucrative post as a government official, he embarked on a political career in the House of Commons, after resuming his studies in Gray's Inn. In 1581 he entered the Commons as a member for Cornwall, and he remained a Member of Parliament for thirty-seven years. He was admitted to the bar in 1582 and in 1587 was elected as a reader at Gray's Inn. His involvement in high politics started in 1584, when he wrote his first political memorandum, A Letter of Advice to Queen Elizabeth. Right from the beginning of his adult life, Bacon aimed at a revision of natural philosophy and—following his father's example—also tried to secure high political office. Very early on he tried to formulate outlines for a new system of the sciences, emphasizing empirical methods and laying the foundation for an applied science (scientia operativa). This twofold task, however, proved to be too ambitious to be realized in practice. Bacon's ideas concerning a reform of the sciences did not meet with much sympathy from Queen Elizabeth or from Lord Burghley. Small expectations on this front led him to become a successful lawyer and Parliamentarian. From 1584 to 1617 (the year he entered the House of Lords) he was an active member in the Commons. Supported by Walsingham's patronage, Bacon played a role in the investigation of English Catholics and argued for stern action against Mary Queen of Scots. He served on many committees, including one in 1588 which examined recusants; later he was a member of a committee to revise the laws of England. He was involved in the political aspects of religious questions, especially concerning the conflict between the Church of England and nonconformists. In a tract of 1591, he tried to steer a middle course in religious politics; but one year later he was commissioned to write against the Jesuit Robert Parson (Jardine and Stewart 1999, p. 125), who had attacked English sovereignty.

From the late 1580s onwards, Bacon turned to the Earl of Essex as his patron. During this phase of his life, he particularly devoted himself to natural philosophy. He clearly expressed his position in a famous letter of 1592 to his uncle, Lord Burghley:

I confess that I have as vast contemplative ends, as I have moderate civil ends: for I have taken all knowledge to be my province; and if I could purge it of two sorts of rovers, whereof the one with frivolous disputations, confutations, and verbosities, the other with blind experiments and auricular traditions and impostures, hath committed so many spoils, I hope I should bring in industrious observations, grounded conclusions, and profitable inventions and discoveries; the best state of that province. This, whether it be curiosity, or vain glory, or nature, or (if one take it favourably) philanthropia, is so fixed in my mind as it cannot be removed. And I do easily see, that place of any reasonable countenance doth bring commandment of more wits than of a man's own; which is the thing I greatly affect. (Bacon 1857–74, VIII, 109)

In 1593 Bacon fell out favor with the queen on account of his refusal to comply with her request for funds from Parliament. Although he did not vote against granting three subsidies to the government, he demanded that these should be paid over a period six, rather than three, years. This led Sir Robert Cecil and Sir Walter Raleigh to argue against him in Parliament. Bacon's patron, the Earl of Essex, for whom he had already served as a close political advisor and informer, was not able to mollify the queen's anger over the subsidies; and all Essex's attempts to secure a high post for Bacon (attorney-general or solicitor-general) came to nothing. Nevertheless, the queen valued Bacon's competence as a man of law. He was involved in the treason trial of Roderigo Lopez and later on in the proceedings against the Earl of Essex. In his contribution to the Gesta Grayorum (the traditional Christmas revels held in Gray's Inn) of 1594–5, Bacon had emphasized the necessity of scientific improvement and progress. Since he failed to secure for himself a position in the government, he considered the possibility of giving up politics and concentrating on natural philosophy. It is no wonder, then, that Bacon engaged in many scholarly and literary pursuits in the 1590s. His letters of advice to the Earl of Rutland and to the Earl of Essex should be mentioned in this context. The advice given to Essex is of particular importance because Bacon recommended that he should behave in a careful and intelligent manner in public, above all abstaining from aspiring to military commands. Bacon also worked in this phase of his career for the reform of English law. In 1597 his first book was published, the seminal version of his Essays, which contained only ten pieces (Klein 2004b). His financial situation was still insecure; but his plan to marry the rich widow Lady Hatton failed because she was successfully courted by Sir Edward Coke. In 1598 Bacon was unable to sell his reversion of the Star Chamber clerkship, so that he was imprisoned for a short time on account of his debts. His parliamentary activities in 1597–98, mainly involving committee work, were impressive; but when the Earl of Essex in 1599 took command of the attempt to pacify the Irish rebels, Bacon's hopes sank. Essex did not solve the Irish question, returned to court and fell from grace, as Bacon had anticipated he would. He therefore lost a valuable patron and spokesman for his projects. Bacon tried to reconcile the queen and Essex; but when the earl rebelled against the crown in 1601, he could do nothing to help him. The queen ordered Bacon to participate in the treason trial against Essex. In 1601 Bacon sat in Elizabeth's last parliament, playing an extremely active role.

Bacon looked forward to the next reign and tried to get in contact with James VI of Scotland, Elizabeth's successor. During James' reign Bacon rose to power. He was knighted in 1603 and was created a learned counsel a year later. He took up the political issues of the union of England and Scotland, and he worked on a conception of religious toleration, endorsing a middle course in dealing with Catholics and nonconformists. Bacon married Alice Barnhem, the young daughter of a rich London alderman in 1606. One year later he was appointed Solicitor General. He was also dealing with theories of the state and developed the idea, in accordance with Machiavelli, of a politically active and armed citizenry. In 1608 Bacon became clerk of the Star Chamber; and at this time, he made a review of his life, jotting down his achievements and failures. Though he still was not free from money problems, his career progressed step by step. In the period from 1603 to 1613 Bacon was not only busy within English politics. He also created the foundations of his philosophical work by writing seminal treatises which prepared the path for the Novum Organum and for the Instauratio Magna. In 1613 he became Attorney General and began the rise to the peak of his political career: he became a member of the Privy Council in 1616, was appointed Lord Keeper of the Great Seal the following year—thus achieving the same position as his father—and was granted the title of Lord Chancellor and created Baron of Verulam in 1618. In 1621, however, Bacon, after being created Viscount of St Alban, was impeached by Parliament for corruption. He fell victim to an intrigue in Parliament because he had argued against the abuse of monopolies, indirectly attacking his friend, the Duke of Buckingham, who was the king's favorite. In order to protect Buckingham, the king sacrificed Bacon, whose enemies had accused him of taking bribes in connection with his position as a judge. Bacon saw no way out for himself and declared himself guilty. His fall was contrived by his adversaries in Parliament and by the court faction, for which he was a scapegoat to save the Duke of Buckingham not only from public anger but also from open aggression (Mathews 1996). He lost all his offices and his seat in Parliament, but retained his titles and his personal property. Bacon devoted the last five years of his life—the famous quinquennium—entirely to his philosophical work. He tried to go ahead with his huge project, the Instauratio Magna Scientiarum; but the task was too big for him to accomplish in only a few years. Though he was able to finish important parts of the Instauratio, the proverb, often quoted in his works, proved true for himself: Vita brevis, ars longa. He died in April 1626 of pneumonia after experiments with ice.

2. Natural Philosophy: Struggle with Tradition

Bacon's struggle to overcome intellectual blockades and the dogmatic slumber of his age and of earlier periods had to be fought on many fronts. Very early on he criticized not only Plato, Aristotle and the Aristotelians, but also humanists and Renaissance scholars such as Paracelsus and Bernardino Telesio.

Although Aristotle provided specific axioms for every scientific discipline, what Bacon found lacking in the Greek philosopher's work was a master principle or general theory of science, which could be applied to all branches of natural history and philosophy (Klein 2003a). For Bacon, Aristotle's cosmology, as well as his theory of science, had become obsolete and consequently so too had many of the medieval thinkers who followed his lead. He does not repudiate Aristotle completely, but he opposes the humanistic interpretation of him, with its emphasis on syllogism and dialectics (scientiaoperativa versus textual hermeneutics) and the metaphysical treatment of natural philosophy in favor of natural forms (or nature's effects as structured modes of action, not artifacts), the stages of which correspond—in the shape of a pyramid of knowledge—to the structural order of nature itself.

If any ‘modern’ Aristotelians came near to Bacon, it was the Venetian or Paduan branch, represented by Jacopo Zabarella. On the other hand, Bacon criticized Telesio, who—in his view—had only halfway succeeded in overcoming Aristotle's deficiencies. Although we find the debate with Telesio in an unpublished text of his middle period (De Principiis atque Originibus, secundum fabulas Cupidinis et Coelum or On Principles and Origins According to the Fables of Cupid and Coelum, written in 1612; Bacon V [1889], 461–500), Bacon began to struggle with tradition as early as 1603. In ValeriusTerminus (1603?) he already repudiates any mixture of natural philosophy and divinity; he provides an outline of his new method and determines that the end of knowledge was “a discovery of all operations and possibilities of operations from immortality (if it were possible) to the meanest mechanical practice” (Bacon III [1887], 222). He opposes Aristotelian anticipatio naturae, which favored the inquiry of causes to satisfy the mind instead of those “as will direct him and give him light to new experiences and inventions” (Bacon III [1887], 232).

When Bacon introduces his new systematic structure of the disciplines in The Advancement of Learning (1605), he continues his struggle with tradition, primarily with classical antiquity, rejecting the book learning of the humanists, on the grounds that they “hunt more after words than matter” (Bacon III [1887], 283). Accordingly, he criticizes the Cambridge University curriculum for placing too much emphasis on dialectical and sophistical training asked of “minds empty and unfraught with matter” (Bacon III [1887], 326). He reformulates and functionally transforms Aristotle's conception of science as knowledge of necessary causes. He rejects Aristotle's logic, which is based on his metaphysical theory, whereby the false doctrine is implied that the experience which comes to us by means of our senses (things as they appear) automatically presents to our understanding things as they are. Simultaneously Aristotle favors the application of general and abstract conceptual distinctions, which do not conform to things as they exist. Bacon, however, introduces his new conception of philosophia prima as a meta-level for all scientific disciplines.

From 1606 to 1612 Bacon pursued his work on natural philosophy, still under the auspices of a struggle with tradition. This tendency is exemplified in the unpublished tracts Temporis partus masculus, 1603/1608 (Bacon III [1887], 521–31), Cogitata et Visa, 1607 (Bacon III, 591–620), Redargutio Philosophiarum, 1608 (III, 557–85), and De Principiis atque Originibus…, 1612 (Bacon V [1889], 461–500). Bacon rediscovers the Pre-Socratic philosophers for himself, especially the atomists and among them Democritus as the leading figure. He gives preference to Democritus' natural philosophy in contrast to the scholastic—and thus Aristotelian—focus on deductive logic and belief in authorities. Bacon does not expect any approach based on tradition to start with a direct investigation of nature and then to ascend to empirical and general knowledge. This criticism is extended to Renaissance alchemy, magic, and astrology (Temporis partus masculus), because the ‘methods’ of these ‘disciplines’ are based on occasional insights, but do not command strategies to reproduce the natural effects under investigation. His criticism also concerns contemporary technical literature, in so far as it lacks a new view of nature and an innovative methodological program. Bacon takes to task the ancients, the scholastics and also the moderns. He not only criticizes Plato, Aristotle, and Galen for these failings, but also Jean Fernel, Paracelsus, and Telesio, while praising the Greek atomists and Roger Bacon.

Bacon's manuscripts already mention the doctrine of the idols as a necessary condition for constituting scientia operativa. In Cogitata et Visa he compares deductive logic as used by the scholastics to a spider's web, which is drawn out of its own entrails, whereas the bee is introduced as an image of scientia operativa. Like a bee, the empiricist, by means of his inductive method, collects the natural matter or products and then works them up into knowledge in order to produce honey, which is useful for healthy nutrition.

In Bacon's follow-up paper, Redargutio Philosophiarum, he carries on his empiricist project by referring to the doctrine of twofold truth, while in De Principiis atque Originibus he rejects alchemical theories concerning the transformation of substances in favor of Greek atomism. But in the same text he sharply criticizes his contemporary Telesio for propagating a non-experimental halfway house empiricism. Though Telesio proves to be a moderate ‘modern’, he clings to the Aristotelian framework by continuing to believe in the quinta essentia and in the doctrine of the two worlds, which presupposes two modes of natural law (one mode for the sublunary and another for the superlunary sphere).

3. Natural Philosophy: Theory of the Idols and the System of Sciences

3.1 The Idols

Bacon's doctrine of the idols not only represents a stage in the history of theories of error (Brandt 1979) but also functions as an important theoretical element within the rise of modern empiricism. According to Bacon, the human mind is not a tabula rasa. Instead of an ideal plane for receiving an image of the world in toto, it is a crooked mirror, on account of implicit distortions (Bacon IV [1901], 428–34). He does not sketch a basic epistemology but underlines that the images in our mind right from the beginning do not render an objective picture of the true objects. Consequently, we have to improve our mind, i.e., free it from the idols, before we start any knowledge acquisition.

As early as Temporis partus masculus, Bacon warns the student of empirical science not to tackle the complexities of his subject without purging the mind of its idols:

On waxen tablets you cannot write anything new until you rub out the old. With the mind it is not so; there you cannot rub out the old till you have written in the new. (Farrington 1964, 72)

In Redargutio Philosophiarum Bacon reflects on his method, but he also criticizes prejudices and false opinions, especially the system of speculation established by theologians, as an obstacle to the progress of science (Farrington 1964, 107), together with any authoritarian stance in scholarly matters.

Bacon deals with the idols in the Second Book of The Advancement of Learning, where he discusses Arts intellectual (Invention, Judgment, Memory, Tradition). In his paragraph on judgment he refers to proofs and demonstrations, especially to induction and invention. When he comes to Aristotle's treatment of the syllogism, he reflects on the relation between sophistical fallacies (Aristotle, De Sophisticis Elenchis) and the idols (Bacon III [1887], 392–6). Whereas induction, invention, and judgment presuppose “the same action of the mind”, this is not true for proof in the syllogism. Bacon, therefore, prefers his own interpretatio naturae, repudiating elenches as modes of sophistical ‘juggling’ in order to persuade others in redargutions (“degenerate and corrupt use … for caption and contradiction”). There is no finding without proof and no proof without finding. But this is not true for the syllogism, in which proof (syllogism: judgment of the consequent) and invention (of the ‘mean’ or middle term) are distinct. The caution he suggests in relation to the ambiguities in elenches is also recommended in face of the idols:

there is yet a much more important and profound kind of fallacies in the mind of man, which I find not observed or enquired at all, and think good to place here, as that which of all others appertaineth most to rectify judgment: the force whereof is such, as it doth not dazzle or snare the understanding in some particulars, but doth more generally and inwardly infect and corrupt the state thereof. For the mind of man is far from the nature of a clear and equal glass, wherein the beams of things should reflect according to their true incidence, nay, it is rather like an enchanted glass, full of superstition and imposture, if it be not delivered and reduced. For this purpose, let us consider the false appearances that are imposed upon us by the general nature of the mind …. (Bacon III [1887], 394–5)

Bacon still presents a similar line of argument to his reader in 1623, namely in De Augmentis (Book V, Chap. 4; see Bacon IV [1901], 428–34). Judgment by syllogism presupposes—in a mode agreeable to the human mind—mediated proof, which, unlike in induction, does not start from sense in primary objects. In order to control the workings of the mind, syllogistic judgment refers to a fixed frame of reference or principle of knowledge as the basis for “all the variety of disputations” (Bacon IV [1901], 491). The reduction of propositions to principles leads to the middle term. Bacon deals here with the art of judgment in order to assign a systematic position to the idols. Within this art he distinguishes the ‘Analytic’ from the detection of fallacies (sophistical syllogisms). Analytic works with “true forms of consequences in argument” (Bacon IV [1901], 429), which become faulty by variation and deflection. The complete doctrine of detection of fallacies, according to Bacon, contains three segments:

  1. Sophistical fallacies,
  2. Fallacies of interpretation, and
  3. False appearances or Idols.

Concerning (1) Bacon praises Aristotle for his excellent handling of the matter, but he also mentions Plato honorably. Fallacies of interpretation (2) refer to “Adventitious Conditions or Adjuncts of Essences”, similar to the predicaments, open to physical or logical inquiry. He focuses his attention on the logical handling when he relates the detection of fallacies of interpretation to the wrong use of common and general notions, which leads to sophisms. In the last section (3) Bacon finds a place for his idols, when he refers to the detection of false appearances as

the deepest fallacies of the human mind: For they do not deceive in particulars, as the others do, by clouding and snaring the judgment; but by a corrupt and ill-ordered predisposition of mind, which as it were perverts and infects all the anticipations of the intellect. (IV, 431)

Idols are productions of the human imagination (caused by the crooked mirror of the human mind) and thus are nothing more than “untested generalities” (Malherbe 1996, 80).

In his Preface to the Novum Organum Bacon promises the introduction of a new method, which will restore the senses to their former rank (Bacon IV [1901], 17f.), begin the whole labor of the mind again, and open two sources and two distributions of learning, consisting of a method of cultivating the sciences and another of discovering them. This new beginning presupposes the discovery of the natural obstacles to efficient scientific analysis, namely seeing through the idols, so that the mind's function as the subject of knowledge acquisition comes into focus (Brandt 1979, 19).

According to Aphorism XXIII of the First Book, Bacon makes a distinction between the Idols of the human mind and the Ideas of the divine mind: whereas the former are for him nothing more than “certain empty dogmas”, the latter show “the true signatures and marks set upon the works of creation as they are found in nature” (Bacon IV [1901], 51).

3.1.1 Idols of the Tribe

The Idols of the Tribe have their origin in the production of false concepts due to human nature, because the structure of human understanding is like a crooked mirror, which causes distorted reflections (of things in the external world).

3.1.2 Idols of the Cave

The Idols of the Cave consist of conceptions or doctrines which are dear to the individual who cherishes them, without possessing any evidence of their truth. These idols are due to the preconditioned system of every individual, comprising education, custom, or accidental or contingent experiences.

3.1.3 Idols of the Market Place

These idols are based on false conceptions which are derived from public human communication. They enter our minds quietly by a combination of words and names, so that it comes to pass that not only does reason govern words, but words react on our understanding.

3.1.4 Idols of the Theatre

According to the insight that the world is a stage, the Idols of the Theatre are prejudices stemming from received or traditional philosophical systems. These systems resemble plays in so far as they render fictional worlds, which were never exposed to an experimental check or to a test by experience. The idols of the theatre thus have their origin in dogmatic philosophy or in wrong laws of demonstration.

Bacon ends his presentation of the idols in Novum Organum, Book I, Aphorism LXVIII, with the remark that men should abjure and renounce the qualities of idols, “and the understanding [must be] thoroughly freed and cleansed” (Bacon IV [1901], 69). He discusses the idols together with the problem of information gained through the senses, which must be corrected by the use of experiments (Bacon IV [1901], 27).

3.2 System of Sciences

Within the history of occidental philosophy and science, Bacon identifies only three revolutions or periods of learning: the heyday of the Greeks and that of the Romans and Western Europe in his own time (Bacon IV [1901], 70ff.). This meager result stimulated his ambition to establish a new system of the sciences. This tendency can already be seen in his early manuscripts, but is also apparent in his first major book, The Advancement of Learning. In this work Bacon presents a systematic survey of the extant realms of knowledge, combined with meticulous descriptions of deficiencies, leading to his new classification of knowledge. In The Advancement (Bacon III [1887], 282f.) a new function is given to philosophia prima, the necessity of which he had indicated in the Novum Organum, I, Aphorisms LXXIX–LXXX (Bacon IV [1901], 78–9). In both texts this function is attributed to philosophia naturalis, the basis for his concept of the unity of the sciences and thus of materialism.

Natural science is divided by Bacon into physics and metaphysics. The former investigates variable and particular causes, the latter reflects on general and constant ones, for which the term form is used. Forms are more general than the four Aristotelian causes and that is why Bacon's discussion of the forms of substances as the most general properties of matter is the last step for the human mind when investigating nature. Metaphysics is distinct from philosophia prima. The latter marks the position in the system where general categories of a general theory of science are treated as (1) universal categories of thought, (2) relevant for all disciplines. Final causes are discredited, since they lead to difficulties in science and tempt us to amalgamate theological and teleological points of doctrine. At the summit of Bacon's pyramid of knowledge are the laws of nature (the most general principles). At its base the pyramid starts with observations, moves on to invariant relations and then to more inclusive correlations until it reaches the stage of forms. The process of generalization ascends from natural history via physics towards metaphysics, whereas accidental correlations and relations are eliminated by the method of exclusion. It must be emphasized that metaphysics has a special meaning for Bacon. This concept (1) excludes the infinity of individual experience by generalization with a teleological focus and (2) opens our mind to generate more possibilities for the efficient application of general laws.

3.3 Matter Theory and Cosmology

According to Bacon, man would be able to explain all the processes in nature if he could acquire full insight into the hidden structure and the secret workings of matter (Pérez-Ramos 1988, 101). Bacon's conception of structures in nature, functioning according to its own working method, concentrates on the question of how natural order is produced, namely by the interplay of matter and motion. In De Principiis atque Originibus, his materialistic stance with regard to his conception of natural law becomes evident. The Summary Law of Nature is a virtus (matter-cum-motion) or power in accordance with matter theory, or

the force implanted by God in these first particles, form the multiplication thereof of all the variety of things proceeds and is made up. (Bacon V [1889], 463)

Similarly, in De Sapientia Veterum he attributes to this force an

appetite or instinct of primal matter; or to speak more plainly, the natural motion of the atom; which is indeed the original and unique force that constitutes and fashions all things out of matter. (Bacon VI [1890], 729)

Suffice it to say here that Bacon, who did not reject mathematics in science, was influenced by the early mathematical version of chemistry developed in the 16th century, so that the term ‘instinct’ must be seen as a keyword for his theory of nature. The natural philosopher is urged to inquire into the

appetites and inclination of things by which all that variety of effects and changes which we see in the works of nature and art is brought about. (Bacon III [1887], 17–22; V [1889], 422–6 and 510ff.: Descriptio Globi Intellectualis; cf. IV [1901], 349)

Bacon's theory of active or even vivid force in matter accounts for what he calls Cupid in De Principiis atque Originibus (Bacon V [1889], 463–5). Since his theory of matter aims at an explanation of the reality which is the substratum of appearances, he digs deeper than did the mechanistic physics of the 17th century (Gaukroger 2001, 132–7). Bacon's ideas concerning the quid facti of reality presuppose the distinction

between understanding how things are made up and of what they consist, … and by what force and in what manner they come together, and how they are transformed. (Gaukroger 2001, 137)

This is the point in his work where it becomes obvious that he tries to develop an explanatory pattern in which his theory of matter, and thus his atomism, are related to his cosmology, magic, and alchemy.

In De Augmentis, Bacon not only refers to Pan and his nymphs in order to illustrate the permanent atomic movement in matter but in addition revives the idea of magic in a ‘honourable meaning’ as

the knowledge of the universal consents of things …. I … understand [magic] as the science which applies the knowledge of hidden forms to the production of wonderful operations; and by uniting (as they say) actives with passives, displays the wonderful works of nature. (Bacon IV [1901], 366–7: De Augmentis III.5)

Bacon's notion of form is made possible by integration into his matter theory, which (ideally) reduces the world of appearances to some minimal parts accessible and open to manipulation by the knower/maker. In contrast to Aristotle, Bacon's knowing-why type of definition points towards the formulation of an efficient knowing-how type (Pérez-Ramos 1988, 119). In this sense a convergence between the scope of definition and that of causation takes place according to a ‘constructivist epistemology’. The fundamental research of Graham Rees has shown that Bacon's special mode of cosmology is deeply influenced by magic and semi-Paracelsian doctrine. For Bacon, matter theory is the basic doctrine, not classical mechanics as it is with Galileo. Consequently, Bacon's purified and modified versions of chemistry, alchemy, and physiology remain primary disciplines for his explanation of the world.

According to Rees, the Instauratio Magna comprises two branches: (1) Bacon's famous scientific method, and (2) his semi-Paracelsian world system as “a vast, comprehensive system of speculative physics” (Rees 1986, 418). For (2) Bacon conjoins his specific version of Paracelsian cosmic chemistry to Islamic celestial kinematics (especially in Alpetragius [al-Bitruji]; see Zinner 1988, 71). The chemical world system is used to support Bacon's explanation of celestial motion in the face of contemporary astronomical problems (Rees 1975b, 161f.). There are thus two sections in Bacon's Instauratio, which imply the modes of their own explanation.

Bacon's speculative cosmology and matter theory had been planned to constitute Part 5 of Instauratio Magna. The theory put forward refers in an eclectic vein to atomism, criticizes Aristotelians and Copernicans, but also touches on Galileo, Paracelsus, William Gilbert, Telesio, and Arabic astronomy.

For Bacon, ‘magic’ is classified as applied science, while he generally subsumes under ‘science’ pure science and technology. It is never identified with black magic, since it represents the “ultimate legitimate power over nature” (Rees 2000, 66). Whereas magia was connected to crafts in the 16th and 17th centuries, Bacon's science remains the knowledge of forms in order to transform them into operations. Knowledge in this context, however, is no longer exclusively based on formal proof.

Bacon's cosmological system—a result of thought experiments and speculation, but not proven in accordance with the inductive method—presupposes a finite universe, a geocentric plenum, which means that the earth is passive and consists of tangible matter. The remaining universe is composed of active or pneumatic matter. Whereas the interior and tangible matter of the earth is covered by a crust which separates it from the pneumatic heaven, the zone between earth and the “middle region of the air” allows a mixture of pneumatic and tangible matter, which is the origin of organic and non-organic phenomena. Bacon speaks here of “attached spirit” (Rees 1986, 418–20), while otherwise he assumes four kinds of free spirit: air and terrestrial fire, which refer to the sublunary realm; ether and sidereal fire, which are relevant to the celestial realm. Ether is explained as the medium in which planets move around the central earth. Air and ether, as well as watery non-inflammable bodies, belong to Bacon's first group of substances or to the Mercury Quaternion.

Terrestrial fire is presented as the weak variant of sidereal fire; it joins with oily substances and sulphur, for all of which Bacon introduces the Sulphur Quaternion. These quaternions comprise antithetical qualities: air and ether versus fire and sidereal fire. The struggle between these qualities is determined by the distance from the earth as the absolute center of the world system. Air and ether become progressively weaker as the terrestrial and sidereal fire grow stronger. The quaternion theory functions in Bacon's thought as a constructive element for constituting his own theory of planetary movement and a general theory of physics. This theory differs from all other contemporary approaches, even though Bacon states that “many theories of the heavens may be supposed which agree well enough with the phenomena and yet differ with each other” (Bacon IV [1901], 104). The diurnal motion of the world system (9th sphere) is driven by sympathy; it carries the heavens westward around the earth. The sidereal fire is powerful and, accordingly, sidereal motion is swift (the stars complete their revolution in 24 hours). Since the sidereal fire becomes weaker if it burns nearer to the earth, the lower planets move more slowly and unevenly than the higher ones (in this way Bacon, like Alpetragius, accounts for irregular planetary movement without reference to Ptolemy's epicycle theory). He applies his theory of consensual motion to physics generally (e.g., wind and tides) and thus comes into conflict with Gilbert's doctrine of the interstellar vacuum and Galileo's theory of the tides (for Bacon, the cycle of tides depends on the diurnal motion of the heavens but, for Galileo, on the earth's motion).

With quaternion theory we see that, in the final analysis, Bacon was not a mechanist philosopher. His theory of matter underwent an important transformation, moving in the direction of ‘forms’, which we would nowadays subsume under biology or the life sciences rather than under physics. Bacon distinguishes between non-spiritual matter and spiritual matter. The latter, also called ‘subtle matter’ or ‘spirit’, is more reminiscent of Leibniz' ‘monads’ than of mechanically defined and materially, as well as spatially, determined atoms. The spirits are seen as active agents of phenomena; they are endowed with ‘appetition’ and ‘perception’ (Bacon I [1889], 320–21: Historia Vitae et Mortis; see also V, 63: Sylva Sylvarum, Century IX: “It is certain that all bodies whatsoever, though they have no sense, yet they have perception: for when one body is applied to another, there is a kind of election to embrace that which is agreeable, and to exclude or expel that which is ingrate”).

These spirits are never at rest. In the Novum Organum, then, Bacon rejected the “existence of eternal and immutable atoms and the reality of the void” (Kargon 1966, 47). His new conception of matter was therefore “close to that of the chemists” in the sense of Bacon's semi-Paracelsian cosmology (Rees 2000, 65–69). The careful natural philosopher tries to disclose the secrets of nature step by step; and therefore he says of his method: “I propose to establish progressive stages of certainty” (Bacon IV [1901], 40: Novum Organum, Preface). This points towards his inductive procedure and his method of tables, which is a complicated mode of induction by exclusion. It is necessary because nature hides her secrets. In Aphorism XIX of Book I in his Novum Organum Bacon writes:

There are and can be only two ways of searching into and discovering truth. The one flies from the senses and particulars to the most general axioms, and from these principles, the truth of which it takes for settled and immoveable, proceeds to judgment and to the discovery of middle axioms. And this way is now in fashion. The other derives axioms from the senses and particulars, rising by gradual and unbroken ascent, so that it arrives at the most general axioms last of all. This is the true way, but as yet untried. (Bacon IV [1901], 50)

The laws of nature, which Bacon intended to discover by means of his new method, were expressed in the ‘forms’, in which the ‘unbroken ascent’ culminates. Through these forms the natural philosopher understands the general causes of phenomena (Kargon 1966, 48). In his endeavor to learn more about the secret workings of nature, Bacon came to the conclusion that the atomist theory could not provide sufficient explanations for the “real particles, such as really exist” (Bacon IV [1901], 126: Novum Organum, II.viii), because he thought that the immutability of matter and the void (both necessary assumptions for atomism) were untenable. His language turned from that of Greek physics to the usage of contemporary chemists. This is due to his insight that “subtlety of investigation” is needed, since our senses are too gross for the complexity and fineness of nature, so that method has to compensate for the shortcomings of our direct comprehension. Only method leads to the knowledge of nature: in Sylva Sylvarum, Century I.98 Bacon deals explicitly with the question of the asymmetrical relationship between man's natural instrument (i.e., the senses) and the intricacy of nature's structures and workings.

Bacon distinguishes ‘animate’ or vital spirits, which are continuous and composed of a substance similar to fire, from lifeless or inanimate spirits, which are cut off and resemble air: the spirits interact with gross matter through chemical processes (Bacon IV, 195–6 (Novum Organum, II.xl)). These spirits have two different desires: self-multiplication and attraction of like spirits. According to Kargon (1966, 51):

Bacon's later theory of matter is one of the interaction of gross, visible parts of matter and invisible material spirits, both of which are physically mixed.

Spirits interact with matter by means of concoction, colliquation and other non-mechanical chemical processes, so that Bacon's scientific paradigm differs from Descartes' mechanist theory of matter in his Principia Philosophiae (1644), which presupposes res extensa moving in space. Bacon's theory of matter is thus closely related to his speculative philosophy:

The distinction between tangible and pneumatic matter is the hinge on which the entire speculative system turns. (Rees 1996, 125; Paracelsus had already stated that knowledge inheres in the object: see Shell 2004, 32)

Bacon's theory of matter in its final version was more corpuscular than atomist (Clericuzio 2000, 78). Bacon's particles are semina rerum: they are endowed with powers, which make a variety of motions possible and allow the production of all possible forms. These spirits are constitutive for Bacon's theory of matter. As material, fine substances, composed of particles, combined from air and fire, they can, as we have seen, be either inanimate or animate. Bacon thus suggests a corpuscular and chemical chain of being:

inanimate objectsinaugurate spirits
vegetablesinanimate + vital spirits
animalsvital spirits

Small wonder, then, that Bacon's spirits are indispensable for his conception of physiology:

the vital spirits regulate all vegetative functions of plants and animals. Organs responsible for these functions, for digestion, assimilation, etc., seem to act by perception, mere reaction to local stimuli, but these reactions are coordinated by the vital spirit. These functions flow from the spirit's airy-flamy constitution. The spirit has the softness of air to receive impressions and the vigour of fire to propagate its actions. (Rees in OFB VI, 202–3)

This physiological stratum of Bacon's natural philosophy was influenced by his semi-Paracelsian cosmology (on Paracelsus see Müller-Jahncke 1985, 67–88), which Graham Rees (Rees and Upton 1984, 20–1) has reconstructed from the extant parts of the Instauratio Magna. Detailed consideration therefore has to be given to Bacon's theory of the ‘quaternions’.

Bacon's speculative system is a hybrid based on different sources which provided him with seminal ideas: e.g., atomism, Aristotelianism, Arabic astronomy, Copernican theory, Galileo's discoveries, the works of Paracelsus, and Gilbert. In his theory he combines astronomy, referring to Alpetragius (see Dijksterhuis 1956, 237–43; Rees and Upton 1984, 26; Gaukroger, 2001, 172–5; and see Grant 1994, 533–66, for discussion of the cosmology of Alpetragius), and chemistry (Rees 1975a, 84–5):

[i]t was partly designed to fit a kinematic skeleton and explain, in general terms, the irregularities of planetary motion as consequences of the chemical constitution of the universe. (Rees 1975b, 94)

Bacon had no explanation for the planetary retrogressions and saw the universe as a finite and geocentric plenum, in which the earth consists of the two forms of matter (tangible and pneumatic). The earth has a tangible inside and is in touch with the surrounding universe, but through an intermediate zone. This zone exists between the earth's crust and the pure pneumatic heavens; it reaches some miles into the crust and some miles into air. In this zone, pneumatic matter mixes with tangible matter, thus producing ‘attached spirits’, which must be distinguished from ‘free spirits’ outside tangible bodies. Bacon's four kinds of free spirits are relevant for his ‘quaternion theory’:

– air– ether
sublunarycelestial
– terrestrial fire– sidereal fire

The planets move around the earth in the ether (a tenuous kind of air), which belongs to the ‘mercury quaternion’: it includes watery bodies and mercury. Terrestrial fire is a weakened form of sidereal fire. It is related to oily substances and sulphur, and constitutes the ‘sulphur quaternion’. The two quaternions oppose each other: air/ether vs. fire/sidereal fire. Air and ether loose power when terrestrial and sidereal fires grow more energetic—Bacon's sulphur and mercury are not principles in the sense of Paracelsus, but simply natural substances. The Paracelsian principle of salt is excluded by Bacon and the substance, which plays a role only in the sublunary realm, is for him a compound of natural sulphur and mercury (Rees and Upton 1984, 25).

Bacon used his quaternion theory for his cosmology, which differs greatly from other contemporary systems (Rees 2000, 68):

  • the diurnal motion turns the heavens about the earth towards the west;
  • under powerful sidereal fire (i.e., principle of celestial motion) the motion is swift: the revolution of the stars takes place in twenty-four hours;
  • under weaker sidereal fire—nearer to the earth—planets move more slowly and more erratic.

Bacon, who tried to conceive of a unified physics, rejected different modes of motion in the superlunary and in the sublunary world (Bacon I [1889], 329). He did not believe in the existence of the (crystalline) spheres nor in the macrocosm-microcosm analogy. He revised Paracelsian ideas thoroughly. He rejected the grounding of his theories in Scripture and paid no attention at all to Cabbalistic and Hermetic tendencies (Rees 1975b, 90–1). But he extended the explanatory powers of the quaternions to earthly phenomena such as wind and tides.

Bacon's two systems were closely connected:

System 1: (The Two Quaternions)
explained and comprised the cosmological aspect of his natural philosophy.
System 2: (Theory of Matter)
explained terrestrial nature, that is, it “dealt with the manifold changes in the animal, vegetable, and mineral kingdoms of the frontier zone between the celestial heavens and the Earth's interior” (Rees 1996, 130; the two tables are taken from Rees).

System 2 depends on System 1, since explanations for terrestrial things were subordinated to explanations of the cosmological level. The table of System 2 shows Bacon's matter theory. His quaternion theory is relevant for System 1. System 2 is explained in terms of ‘intermediates’, which combine the qualities of the items in one quaternion with their opposites in the other.

Bacon's system is built in a clear symmetrical way: each quaternion has four segments, together eight and there are four types of intermediates. Thus, the system distinguishes twelve segments in all. He wanted to explain all natural phenomena by means of this apparatus:

Sulphur Quaternion Mercury Quaternion
Tangible Substances (With Attached Spirits) Sulphur (subterranean) Mercury (subterranean)
Oil and oily inflammable substances (terrestrial) Water and ‘crude’ non-inflammable substances (terrestrial)
Pneumatic Substances Terrestrial fire (sublunary) Air (sublunary)
Sidereal fire (planets) Ether (medium of the planets)
Sulphur QuaternionIntermediatesMercury Quaternion
Tangible Substances (with attached spirits)Sulphur (subterranean) Salts (subterranean and in organic beings)Mercury (subterranean)
Oil and oily inflammable substances (terrestrial) Juices of animals and plants Water and ‘crude’ non-inflammable substances (terrestrial)
Pneumatic substances Terrestrial fire (sublunary) Attached animate and inanimate spirits (in tangible bodies) Air (sublunary)
Sidereal fire (planets) Heaven of the fixed stars Ether (medium of planets)

There are two principal intermediates:

The fire-air intermediates
‘attached’ animate spiritsinanimate spirits
only in living bodies in all tangible bodies (including living bodies)

Bacon's bi-quaternion theory necessarily refers to the sublunary as well as to the superlunary world. Although the quaternion theory is first mentioned in Thema Coeli (1612; see Bacon V [1889], 547–59), he provides a summary in his NovumOrganum (Bacon II [1887], 50):

it has not been ill observed by the chemists in their triad of first principles, that sulphur and mercury run through the whole universe … in these two one of the most general consents in nature does seem to be observable. For there is consent between sulphur, oil and greasy exhalation, flame, and perhaps the body of a star. So is there between mercury, water and watery vapors, air, and perhaps the pure and intersiderial ether. Yet these two quaternions or great tribes of things (each within its own limits) differ immensely in quantity of matter and density, but agree very well in configuration. (Bacon IV [1901], 242–3; see also V [1889], 205–6; for tables of the two quaternions and Bacon's theory of matter see Rees 1996, 126, 137; Rees 2000, 68–9)

Bacon regarded his cosmological worldview as a system of anticipations, which was open to revision in light of further scientific results based on the inductive method (Rees 1975b, 171). It was primarily a qualitative system, standing aside from both mathematical astronomers and Paracelsian chemists. It thus emphasized the priority which he gave to physics over mathematics in his general system of the sciences.

Bacon's two quaternions and his matter theory provide a speculative framework for his thought, which was open to the future acquisition of knowledge and its technical application. His Nova Atlantis can be understood as a text which occupies an intermediate position between his theory of induction and his speculative philosophy (Klein 2003c; Price 2002).

It is important to bear in mind that Bacon's speculative system was his way out of a dilemma which had made it impossible for him to finish his Instauratio Magna. His turn towards speculation can only be interpreted as an intellectual anticipation during an intermediate phase of the history of science, when a gigantic amount of research work was still to be accomplished, so that empirical theories could neither be established nor sufficiently guaranteed. Speculation in Bacon's sense can therefore be seen as a preliminary means of explaining the secrets of nature until methodical research has caught up with our speculations. The speculative stance remains a relative and intermediate procedure for the ‘man of science’.

4. Scientific Method: The Project of the Instauratio Magna

The Great Instauration, Bacon's main work, was published in 1620 under the title: Franciscus de Verulamio Summi Angliae Cancellaris Instauratio magna. This great work remained a fragment, since Bacon was only able to finish parts of the planned outline. The volume was introduced by a Prooemium, which gives a general statement of the purpose, followed by a Dedication to the King (James I) and a Preface, which is a summary of all “directions, motifs, and significance of his life-work” (Sessions 1996, 71). After that, Bacon printed the plan of the Instauratio, before he turned to the strategy of his research program, which is known as Novum Organum Scientiarum. Altogether the 1620 book constitutes the second part of Part II of the Instauratio, the first part of which is represented by De Augmentis and Book I of The Advancement of Learning. When Bacon organized his Instauratio, he divided it into six parts, which reminded contemporary readers of God's work of the six days (the creation), already used by writers like Guillaume Du Bartas (La Sepmaine, ou Création du Monde, 1579, transl. by Joshua Sylvester, Bartas His Devine Weekes & Workes, 1605) and Giovanni Pico della Mirandola (Heptaplus, 1489).

Bacon sees nature as a labyrinth, whose workings cannot be exclusively explained by reference to “excellence of wit” and “repetition of chance experiments”:

Our steps must be guided by a clue, and see what way from the first perception of the sense must be laid out upon a sure plan. (Bacon IV [1901], 18)

Bacon's Plan of the Work runs as follows (Bacon IV [1901], 22):

  1. The Divisions of the Sciences.
  2. The New Organon; or Directions concerning the Interpretation of Nature.
  3. The Phenomena of the Universe; or a Natural and Experimental History for the foundation of Philosophy.
  4. The Ladder of Intellect.
  5. The Forerunners; or Anticipations of the New Philosophy.
  6. The New Philosophy; or Active Science.

Part 1 contains the general description of the sciences including their divisions as they presented themselves in Bacon's time. Here he aimed at a distinction between what was already invented and known in contrast to “things omitted which ought be there” (Bacon IV [1901], 23). This part could be taken from The Advancement of Learning (1605) and from the revised and enlarged version De Dignitate et Augmentis Scientiarum (1623).

Part 2 develops Bacon's new method for scientific investigation, the Novum Organum, equipping the intellect to pass beyond ancient arts and thus producing a radical revision of the methods of knowledge; but it also introduces a new epistemology and a new ontology. Bacon calls his new art Interpretatio Naturae, which is a logic of research going beyond ordinary logic, since his science aims at three inventions: of arts (not arguments), of principles (not of things in accordance to principles), and of designations and directions for works (not of probable reasons). The effect Bacon looks for is to command nature in action, not to overcome an opponent in argument. The Novum Organum is the only part of the Instauratio Magna which was brought near to completion.

Part 3 was going to contain natural and experimental history or the record of the phenomena of the universe. According to De Augmentis Scientarum (Bacon IV [1901], 275), natural history is split up into narrative and inductive, the latter of which is supposed “to minister and be in order to the building up of Philosophy”. These functional histories support human memory and provide the material for research, or the factual knowledge of nature, which must be certain and reliable. Natural history starts from and emphasizes the subtlety of nature or her structural intricacy, but not the complexity of philosophical systems, since they have been produced by the human mind. Bacon sees this part of Instauratio Magna as a foundation for the reconstruction of the sciences in order to produce physical and metaphysical knowledge. Nature in this context is studied under experimental conditions, not only in the sense of the history of bodies, but also as a history of virtues or original passions, which refer to the desires of matter (Rees 1975a). This knowledge was regarded by Bacon as a preparation for Part 6, the Second Philosophy or Active Science, for which he gave only the one example of Historia Ventorum (1622); but—following his plan to compose six prototypical natural histories—he also wrote Historia vitae et mortis(1623) and the Historia densi, which was left in manuscript. The text, which develops the idea of Part 3, is called Parasceve ad Historiam Naturalem et Experimentalem.

Part 4, which Bacon called The Ladder of Intellect or Scala Intellectus, was intended to function as a link between the method of natural history and that of Second Philosophy/Active Science. It consists not only of the fragment Filum labyrinthi (Bacon III [1887], 493–504), but also includes the Abecedarium nouum naturae (OFB XIII, xxi), which was planned as a preface to all of section 4 “[to] demonstrate the whole process of the mind” (OFB XIII, xxii). Filum labyrinthi is similar to, but not identical with, Cogitata et Visa. Speaking of himself in an authorial voice, Bacon reflects on the state of science and derives his construction of a research program from the gaps and deficiencies within the system of disciplines: sciences of the future should be examined and further ones should be discovered. Emphasis must be laid on new matter (not on controversies). It is necessary to repudiate superstition, zealous religion, and false authorities. Just as the Fall was not caused by knowledge of nature, but rather by moral knowledge of good and evil, so knowledge of natural philosophy is for Bacon a contribution to the magnifying of God's glory, and, in this way, his plea for the growth of scientific knowledge becomes evident.

Part 5 deals with the forerunners or anticipations of the new philosophy, and Bacon emphasizes that the ‘big machinery’ of the Instauratio Magna needs a good deal of time to be completed. Anticipations are ways to come to scientific inferences without recourse to the method presented in the Novum Organum. Meanwhile, he has worked on his speculative system, so that portions of his Second Philosophy are treated and finished: De Fluxu et Refluxu Maris and Thema Coeli. For this part of the Great Instauration, texts are planned that draw philosophical conclusions from collections of facts which are not yet sufficient for the use or application of Bacon's inductive method.

Part 6 was scheduled to contain Bacon's description of the new philosophy, as the last part of his Great Instauration; but nothing came of this plan, so that there is no extant text at all from this part of the project.

5. Scientific Method: Novum Organum and the Theory of Induction

Already in his early text Cogitata et Visa (1607) Bacon dealt with his scientific method, which became famous under the name of induction. He repudiates the syllogistic method and defines his alternative procedure as one “which by slow and faithful toil gathers information from things and brings it into understanding” (Farrington 1964, 89). When later on he developed his method in detail, namely in his Novum Organum (1620), he still noted that

[of] induction the logicians seem hardly to have taken any serious thought, but they pass it by with a slight notice, and hasten to the formulae of disputation. I on the contrary reject demonstration by syllogism …. (Bacon IV [1901], 24)

Bacon's method appears as his conceptual plot,

applied to all stages of knowledge, and at every phase the whole process has to be kept in mind. (Malherbe 1996, 76)

Induction implies ascending to axioms, as well as a descending to works, so that from axioms new particulars are gained and from these new axioms. The inductive method starts from sensible experience and moves via natural history (providing sense-data as guarantees) to lower axioms or propositions, which are derived from the tables of presentation or from the abstraction of notions. Bacon does not identify experience with everyday experience, but presupposes that method corrects and extends sense-data into facts, which go together with his setting up of tables (tables of presence and of absence and tables of comparison or of degrees, i.e., degrees of absence or presence). “Bacon's antipathy to simple enumeration as the universal method of science derived, first of all, from his preference for theories that deal with interior physical causes, which are not immediately observable” (Urbach 1987, 30; see: sect. 2). The last type can be supplemented by tables of counter-instances, which may suggest experiments:

To move from the sensible to the real requires the correction of the senses, the tables of natural history, the abstraction of propositions and the induction of notions. In other words, the full carrying out of the inductive method is needed. (Malherbe 1996, 85)

The sequence of methodical steps does not, however, end here, because Bacon assumes that from lower axioms more general ones can be derived (by induction). The complete process must be understood as the joining of the parts into a systematic chain. From the more general axioms Bacon strives to reach more fundamental laws of nature (knowledge of forms), which lead to practical deductions as new experiments or works (IV, 24–5). The decisive instruments in this process are the middle or ‘living axioms,’ which mediate between particulars and general axioms. For Bacon, induction can only be efficient if it is eliminative by exclusion, which goes beyond the remit of induction by simple enumeration. The inductive method helps the human mind to find a way to ascertain truthful knowledge.

Novum Organum, I, Aphorism CXV (Bacon IV [1901], 103) ends the “pulling down” of “the signs and causes of the errors” within the sciences, achieved by means of three refutations, which constituted the condition for a rational introduction of method: refutation of ‘natural human reason’ (idols); refutation of ‘demonstrations’ (syllogisms) and refutation of ‘theories’ (traditional philosophical systems).

The Second Part of the Novum Organum deals with Bacon's rule for interpreting nature, even if he provides no complete or universal theory. He contributes to the new philosophy by introducing his tables of discovery (Inst. Magna, IV), by presenting an example of particulars (Inst. Magna, II), and by observations on history (Inst. Magna, III). It is well known that he worked hard in the last five years of his life to make progress on his natural history, knowing that he could not always come up to the standards of legitimate interpretation.

Bacon's method presupposes a double starting-point: empirical and rational. True knowledge is acquired if we want to proceed from a lower certainty to a higher liberty and from a lower liberty to a higher certainty. The rule of certainty and liberty in Bacon converges with his repudiation of the old logic of Aristotle, which determined true propositions by the criteria of generality, essentiality, and universality. Bacon rejects anticipatio naturae (“anticipation of nature”) in favor of interpretatio naturae (“interpretation of nature”), which starts with the collecting of facts and their methodical (inductive) investigation, shunning entanglement in pure taxonomy (as in Ramism), which establishes the order of things (Urbach 1987, 26; see also Foucault 1966 [1970]), but does not produce knowledge. For Bacon, making is knowing and knowing is making (Bacon IV [1901], 109–10). In accordance with the maxim “command nature … by obeying her” (Sessions 1996, 136; Gaukroger 2001, 139ff.), the exclusion of superstition, imposture, error, and confusion are obligatory. Bacon introduces variations into “the maker's knowledge tradition” as the discovery of the forms of a given nature lead him to develop his method for acquiring factual and proven knowledge.

Bacon argues against “anticipation of nature”, which he regards as a conservative method, leading to theories that recapitulate the data without producing new ones conducive to the growth of knowledge. Moreover, such theories are considered to be final, so that they are never replaced.

“Anticipation of nature” resembles “conventionalism” (Urbach 1987, 30–41), according to which theories refer to unobservable entities (e.g., atoms, epicycles). The theories are “computation rules” or “inference licences” within this given framework, which give explanations and predictions of particular kinds of observable events. The conventionalist acceptance of making predictions concerning future events cannot be separated from the question of probability. Bacon's procedure of knowledge acquisition goes against “conventionalism”, because “anticipation of nature” does not reject authoritative and final speculations concerning “unobservables” and because it permits “ad hoc adjustments”. Nowadays, however,

philosophers would not accept the idea that just because we can't observe something directly … it follows that there is no such thing. (Huggett 2010, 82. See also Von Weizsäcker and Juilfs 1958, pp.67–70; Rae 1986 [2000], 1–27 and passim)

Conventionalist deep-level theories of the world are chosen from among alternative ways of observing phenomena. Although theories revealing the world structure are not directly provable or disprovable by means of observation or experiment, conventionalists might maintain their chosen theory even in the face of counter-evidence. They therefore avoid changes of theory. Any move to a new theory is not taken on the basis of new evidence, but because a new theory seems to be simpler, more applicable or more beautiful. Laws of nature are generally understood as being unrevisable (O'Hear 1995, 165). The famous debate, sparked by Thomas Kuhn, on paradigmatic and non-paradigmatic science and theory is relevant here. Bacon's position—open to scientific progress—is nearer to Kuhn than to Duhem or Poincaré). For Bacon, “anticipation of nature” (as a mode of “conventionalism”) produces obstacles to the progress of knowledge. Traditional methods shun speculation concerning things which are not immediately visible; Bacon's speculation, however, is an element of “interpretation of nature”. He presupposes hypothetical theories, but these do not go beyond the collected data. His acceptance of hypotheses is connected with his rejection of anticipation of nature”. Thus, hypotheses are related to the axioms of “interpretation of nature”, which go beyond the original data. The amount of established facts is not identical with that of possible data (Gillies 1998, 307). Anticipation is rejected, only if it “flies from the senses and particulars to the most general axioms” (OFB XI, xxv). Because of the dangers of premature generalization, Bacon is careful about speculations and rigorously rejects any dogmatic defense of them and the tendency to declare them infallible.

…the philosophy that we now possess clutches to its breast certain tenets with which (if we look into it carefully) they want wholly to conceive men that nothing difficult, nothing with real power and influence over nature, should be expected from art or human effort; […] These things, if we examine them minutely, tend wholly towards a wicked circumscription of human power and an intentional and unnatural despair which not only confounds the presages of hope but breaks every nerve and spur of industry, and throws away the chances afforded by experience itself—while all they care about is that their art be considered perfect, expending their effort to achieve the most foolish and bankrupt glory of having it believed that whatever has not been found out or understood so far cannot be found out or understood in the future. (OFB XI, 141)

Bacon sees nature as an extremely subtle complexity, which affords all the energy of the natural philosopher to disclose her secrets.

For him, new axioms must be larger and wider than the material from which they are taken. At the same time, “interpretation of nature” must not leap to remote axioms. In terms of his method, he rejects general ideas as simple abstractions from very few sense perceptions. Such abstract words may function as conventions for organizing “new observations”, but only in the sense of means for taxonomical order. Such a sterile procedure is irrelevant for “interpretation of nature”, which is not final or infallible and is based on the insight that confirming hypotheses do not provide strict proofs. Bacon's method is therefore characterized by openness:

Nevertheless, I do not affirm that nothing can be added to what I prescribe; on the contrary, as one who observes the mind not only in its innate capacity but also insofar as it gets to grips with things, it is my conviction that the art of discovering will grow as the number of things discovered will grow. (OFB, XI, 197)

Peter Urbach's commentary exactly underlines Bacon's openness:

He believed that theories should be advanced to explain whatever data were available in a particular domain. These theories should preferably concern the underlying physical, causal mechanisms and ought, in any case, to go beyond the data which generated them. They are then tested by drawing out new predictions, which, if verified in experience, may confirm the theory and may eventually render it certain, at least in the sense that it becomes very difficult to deny. (Urbach 1987, 49)

Bacon was no seventeenth-century Popperian. Rather, on account of his theory of induction, he was:

the first great theorist of experimentalism”: “the function of experiment was both to test theories and to establish facts” (Rees, in OFB XI, xli).

Encyclopaedic repetition with an Aristotelian slant is being displaced by original compilation in which deference to authority plays no part whatever. Individual erudition is being dumped in favour of collective research. Conservation of traditional knowledge is being discarded in the interest of a new, functional realization of natural history, which demands that legenda—things worth reading—be supplanted by materials which will form the basis of a thoroughgoing attempt to improve the material conditions of the human race. (Rees, in OFB XI, xlii)

Form is for Bacon a structural constituent of a natural entity or a key to its truth and operation, so that it comes near to natural law, without being reducible to causality. This appears all the more important, since Bacon—who seeks out exclusively causes which are necessary and sufficient for their effects—rejects Aristotle's four causes (his four types of explanation for a complete understanding of a phenomenon) on the grounds that the distribution into material, formal, efficient, and final causes does not work well and that they fail to advance the sciences (especially the final, efficient, and material causes):

There are and can be only two ways of searching into and discovering truth. The one flies from the senses and particulars to the most general axioms, and from these principles, the truth of which it takes for settled and immovable, proceeds to judgment and to the discovery of middle axioms. And this way is now in fashion. The other derives axioms from the senses and particulars, rising by a gradual and unbroken ascent, so that it arrives at the most general axioms at last. This is the true way, but as yet untried. (Bacon IV [1901], 50: Novum Organum, I, Aphorism XIX).

Since for Bacon the formal necessity of the syllogism does not suffice to set up first principles, his method comprises two basic tasks: (1) the discovery of forms, and (2) the transformation of concrete bodies. The discovery from every case of generation and motion refers to a latent process according to which efficient and material causes lead to forms; but there is also the discovery of latent configurations of bodies at rest and not in motion (Bacon IV [1901], 119–20).

Bacon's new mode of using human understanding implies a parallelism between striving towards human power and constituting human knowledge. Technical know-how leads to successful operations, which converge with the discovery of forms (Pérez-Ramos 1988, 108; Bacon IV [1901], 121). To understand the workings of nature presupposes an arrangement of facts which makes the investigative analysis of cause and effect possible, especially by means of new experiments. At this point the idea of scientiaoperativa comes in again, since the direction for a true and perfect rule of operation is parallel to the discovery of a true form. Bacon's specific non-Aristotelian Aristotelianism (Pérez-Ramos 1988, 113, 115) is one of the main features of his theory. Other indispensable influences on Bacon, apart from a modified version of Aristotle, are critically assessed Hermeticism, rhetoric (Vickers) and alchemy (Rees).

Two kinds of axioms correspond to the following division of philosophy and the sciences: the investigation of forms or metaphysics; and the investigation of efficient cause and matter, which leads to the latent process and configuration in physics. Physics itself is split up by Bacon into Mechanics, i.e., the practical, and Magic, i.e., the metaphysical.

Nowadays the view that Bacon “made little first-hand contribution to science” (Hesse 1964, 152) no longer coincides with the opinion that we have to assume an underestimation of the “place of hypothesis and mathematics” in his work (Urban 1987; Sessions 1999, 139; Rees 1986). But there were few doubts in the past that Bacon “encouraged detailed and methodical experimentation” (Hesse 1964, 152); and he did this on account of his new inductive method, which implied the need for negative instances and refuting experiments. Bacon saw that confirming instances could not suffice to analyze the structure of scientific laws, since this task presupposed a hypothetical-deductive system, which, according to Lisa Jardine, is closely connected to “the logical and linguistic backgrounds from which Bacon's New Logic proceeds …” (Sessions 1999, 140; Jardine 1974, 69ff.).

Bacon's interpretation of nature uses “Tables and Arrangements of Instances” concerning the natural phenomena under investigation, which function as a necessary condition for cracking the code of efficient causation. His prerogative instances are not examples or phenomena simply taken from nature but rather imply information with inductive potential which show priority conducive to knowledge or to methodological relevance when inserted into tables. The instances do not represent the order of sensible things, but instead express the order of qualities (natures). These qualities provide the working basis for the order of abstract natures. Bacon's tables have a double function: they are important for natural history, collecting the data on bodies and virtues in nature; and they are also indispensable for induction, which makes use of these data.

Already in Temporis Partus Masculus (1603) Bacon had displayed a “facility of shrewd observation” (Sessions 1999, 60) concerning his ideas on induction. In his Novum Organum the nature of all human science and knowledge was seen by him as proceeding most safely by negation and exclusion, as opposed to affirmation and inclusion. Even in his early tracts it was clear to Bacon that he had to seek a method of discovering the right forms, the most well known of which was heat (Novum Organum II, Aph. XI–XII) or “the famous trial investigation of the form of heat” (Rees 2000, 66; see Bacon IV [1901], 154–5).

In his “[m]ethod of analysis by exclusion” (Sessions 1999, 141), negation proved to be “one of Bacon's strongest contributions to modern scientific method” (Wright 1951, 152). Most important were his tables of degrees and of exclusion. They were needed for the discovery of causes, especially for supreme causes, which were called forms. The method of induction works in two stages:

  1. Learned experience from the known to the unknown has to be acquired, and the tables (of presence, absence, degrees) have to be set up before their interpretation can take place according to the principle of exclusion. After the three tables of the first presentation have been judged and analyzed, Bacon declares the First Vintage or the first version of the interpretation of nature to be concluded.
  2. The second phase of the method concentrates on the process of exclusion. The aim of this procedure is the reduction of the empirical character of experience, so that the analysis converges with an anatomy of things. Here, too, tables of presence and of absence are set up. The research work proper consists of finding the relationship of the two natures of qualities. Here exclusion functions as the process of determination. Bacon's method starts from material determination in order to establish the formal determination of real causes, but does not stop there, because it aims at the progressive generalization of causes. Here, again, the central element of the inductive method is the procedure of exclusion.

Forms, as the final result of the methodical procedure, are:

nothing more than those laws and determinations of absolute actuality which govern and constitute any simple nature, as heat, light, weight, in every kind of matter and subject that is susceptible of them (Bacon IV [1901], 145–6);

They are not identical with natural law, but with definitions of simple natures (elements) or ultimate ingredients of things from which the basic material structure has been built (Gaukroger 2001, 140). Forms are the structures constituted by the elements in nature (microphysics). This evokes a cross-reference to Bacon's atomism, which has been called the “constructivist component” (Pérez-Ramos 1988, 116) of his system, including an alchemical theory about basic kinds of matter. He aims at “understanding the basic structures of things … as a means to transforming nature for human purposes” (Gaukroger 2001, 140; Clericuzio 2000, 78ff.); and thus he “ends” the unfinished Novum Organum with a list of things which still have to be achieved or with a catalogue of phenomena which are important and indispensable for a future natural history.

Historians of science, with their predilection for mathematical physics, used to criticize Bacon's approach, stating that “the Baconian concept of science, as an inductive science, has nothing to do with and even contradicts today's form of science” (Malherbe 1996, 75). In reaching this verdict, however, they overlooked the fact that a natural philosophy based on a theory of matter cannot be assessed on the grounds of a natural philosophy or science based on mechanics as the fundamental discipline. One can account for this chronic mode of misunderstanding as a specimen of the paradigmatic fallacy (Gaukroger 2001, 134ff.; see Rees 1986).

Bacon came to the fundamental insight that facts cannot be collected from nature, but must be constituted by methodical procedures, which have to be put into practice by scientists in order to ascertain the empirical basis for inductive generalizations. His induction, founded on collection, comparison, and exclusion of factual qualities in things and their interior structure, proved to be a revolutionary achievement within natural philosophy, for which no example in classical antiquity existed. His scala intellectus has two contrary movements “upwards and downwards: from axiomata to experimenta and opera and back again” (Pérez-Ramos 1988, 236). Bacon's induction was construed and conceived as an instrument or method of discovery. Above all, his emphasis on negative instances for the procedure of induction itself can claim a high importance with regard to knowledge acquisition and has been acclaimed as an innovation by scholars of our time. Some have detected in Bacon a forerunner of Karl Popper in respect of the method of falsification. Finally, it cannot be denied that Bacon's methodological program of induction includes aspects of deduction and abstraction on the basis of negation and exclusion. Contemporary scholars have praised his inauguration of the theory of induction. This theory has been held in higher esteem since the 1970s than it was for a long period before (see the work of Rees, Gaukroger and Pérez-Ramos 1988, 201–85). Nevertheless, it is doubtful that Bacon's critics, who were associated with the traditions of positivism and analytical philosophy, acquired sufficient knowledge of his writings to produce solid warrants for their criticisms (Cohen 1970, 124–34; Cohen 1985, 58ff.; on the general problem of induction see, e.g., Hempel 1966; Swinburne (ed.) 1974; Lambert and Brittan 1979 [1987]). In comparison to the neglect of Bacon in the twentieth century, a more recent and deeper assessment of his work has arisen in connection with the “Oxford Francis Bacon” project, which was launched in the late 1990s by Graham Rees, who directed it until his death in 2009; it is now under the general editorship of Brian Vickers.

6. Science and Social Philosophy

In Bacon's thought we encounter a relation between science and social philosophy, since his ideas concerning a utopian transformation of society presuppose an integration into the social framework of his program concerning natural philosophy and technology as the two forms of the maker's knowledge. From his point of view, which was influenced by Puritan conceptions, early modern society has to make sure that losses caused by the Fall are compensated for, primarily by man's enlargement of knowledge, providing the preconditions for a new form of society which combines scientia nova and the millennium, according to the prophecy of Daniel 12:4 (Hill 1971, 85–130). Science as a social endeavor is seen as a collective project for the improvement of social structures. On the other hand, a strong collective spirit in society may function as a conditio sine qua non for reforming natural philosophy. Bacon's famous argument that it is wise not to confound the Book of Nature with the Book of God comes into focus, since the latter deals with God's will (inscrutable for man) and the former with God's work, the scientific explanation or appreciation of which is a form of Christian divine service. Successful operations in natural philosophy and technology help to improve the human lot in a way which makes the hardships of life after the Fall obsolete. It is important to note that Bacon's idea of a—to a certain extent—Christian society by no means conveys Christian pessimism in the vein of patristic thinkers but rather displays a clear optimism as the result of compounding the problem of truth with the scope of human freedom and sovereignty (Brandt 1979, 21).

With regard to Bacon's Two Books—the Book of God and the Book of Nature—one has to keep in mind that man, when given free access to the Book of Nature, should not content himself with merely reading it. He also has to find out the names by which things are called. If man does so, not only will he be restored to his status a noble and powerful being, but the Book of God will also lose importance, from a traditional point of view, in comparison to the Book of Nature. This is what Blumenberg referred to as the “asymmetry of readability” (Blumenberg 1981, 86–107). But the process of reading is an open-ended activity, so that new knowledge and the expansion of the system of disciplines can no longer be restricted by concepts such as the completeness and eternity of knowledge (Klein 2004a, 73).

According to Bacon, the Book of God refers to his will, the Book of Nature to his works. He never gives a hint in his works that he has concealed any message of unbelief for the sophisticated reader; but he emphasized: (1) that religion and science should be kept separate and, (2) that they were nevertheless complementary to each other. For Bacon, the attack of theologians on human curiosity cannot be founded on a rational basis. His statement that “all knowledge is to be limited by religion, and to be referred to use and action” (Bacon III [1887], 218) does not express a general verdict on theoretical curiosity, but instead provides a normative framework for the tasks of science in a universal sense. Already in the dedicatory letter to James I in his Advancement of Learning, Bacon attacks “the zeal and jealousy of divines” (Bacon III, 264) and in his manuscript Filum Labyrinthi of 1607, he “thought … how great opposition and prejudice natural philosophy had received by superstition, and the immoderate and blind zeal of religion” (Bacon VI [1863], 421). As Calvin had done long before him in the Institutes, Bacon stated that since God created the physical world, it was a legitimate object of man's knowledge, a conviction which he illustrated with the famous example of King Solomon in The Advancement of Learning (Zagorin 1999, 49–50; see also Kocher 1953, 27–8). Bacon praises Solomon's wisdom, which seems to be more like a game than an example of man's God-given thirst for knowledge:

The glory of God is to conceal a thing, but the glory of the king is to find it out; as if, according to the innocent play of children, the Divine Majesty took delight to hide his works, to the end to have them found out; and as if kings could not obtain a greater honour than to be God's playfellows in that game, considering the great commandment of wits and means, whereby nothing needeth to be hidden from them. (Bacon III [1887], 299; Blumenberg, 1973, 196–200)

From this perspective, the punishment of mankind on account of the very first disobedience by Adam and Eve can be seen in a different light from that of theological interpretations. In Bacon's view, this disobedience and its consequences can be remedied in two ways: (1) by religion and moral imperatives, and (2) by advancement in the arts and sciences: “the purpose in advancing arts and sciences is the glory of God and the relief of man's estate” (Wormald 1993, 82).

The two remedies, which are interconnected with the moral dimension, refer to the advancement of learning and religion. All three together (the advancement of learning, religion, and morality) are combined in such a way that they promote each other mutually; consequently, limited outlooks on coping with life and knowledge are ruled out completely in these three fields.

7. The Ethical Dimension in Bacon's Thought

The ethical dimension of Bacon's thought has been underrated by generations of scholars. Time and again a crude utilitarianism has been derived from Book I, Aphorism 1 of the Novum Organum; this cannot, however, withstand a closer analysis of his thought. Since Bacon's philosophy of science tries to answer the question of how man can overcome the deficiencies of earthly life resulting from the Fall, he enters the realm of ethical reflection. The improvement of mankind's lot by means of philosophy and science does not start from a narrow utilitarian point of view, involving sheer striving for profit and supporting the power or influence of select groups of men, but instead emphasizes the construction of a better world for mankind, which might come into existence through the ascertaining of truths about nature's workings (Bacon III [1887], 242). Thus, the perspective of the universal in Bacon's ethical thought is given predominance. The range of science and technology in their ethical meaning transcends the realm of the application of tools and/or instruments, in so far as the aim is the transformation of whole systems. Since causality and finality can interact on the basis of human will and knowledge, a plurality of worlds becomes feasible (Bacon V [1889], 506–7). Moral philosophy is closely connected to ethical reflections on the relationship between the nature of virtues—habitual or innate?—and their use in life, privately and collectively. Any application of the principles of virtue presupposes for Bacon the education of the mind, so that we learn what is good and what should be attained (Gaukroger 2006, 204–5 and passim):

The main and primitive division of moral knowledge seemeth to be into the Exemplar or Platform of Good, and the Regimen of Culture of the Mind; the one describing the nature of good, the other prescribing rules how to subdue, apply, and accommodate the will of man thereunto (Bacon III [1887], 419).

So, already in his Advancement of Learning Bacon studied the nature of good and distinguished various kinds of good. He insisted on the individual's duty to the public. Private moral self-control and the concomitant obligations are relevant for behavior and action in society. One's ethical persona is connected to morality by reference to acceptable behaviour. Though what we can do may be limited, we have to muster our psychological powers and control our passions when dealing with ourselves and with others. We need to apply self-discipline and rational assessment, as well as restraining our passions, in order to lead an active moral life in society.

Thus, for Bacon, the acquisition of knowledge does not simply coincide with the possibility of exerting power. Scientific knowledge is a condition for the expansion and development of civilization. Therefore, knowledge and charity cannot be kept separate:

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