Today, as I write, I am no longer in the desert of southern California, nor in the beech-maple forest of New Hampshire, but on a glacial drumlin in Waubesa Wetlands—a large marsh four miles south of Madison, Wisconsin. Here Ruth and I have our home, and here I study creatures whose watery habitats my neighbors and I have worked to save from eventual destruction. While my desert study site now is covered by a city where people live alone in the land—absent the desert creatures—my wetland study site remains occupied by all kinds of native plants and animals. Embracing it is the Town of Dunn, whose land stewardship plan helps people understand, serve, and maintain this and the other ecosystems. Our town stewardship plan encourages restoration of the landscape, protects agricultural lands, and strives to transmit an intergenerational heritage of secure and wholesome homes, livelihoods, and habitats for the animals, plants, and people that live here. We live largely in harmony and accord.

House-building on slabs poured onto desert sands first alerted me to the question of praxis, the third point on the napkin. But it was later, in my work as organizer of the Waubesa Wetlands Scientific and Agricultural Preserve, and as supervisor and later as chair of the Town of Dunn, that I came to realize that science and ethics do no earthly good unless put into practice. In serving my town, I came to apply what I had learned in the desert: praxis uninformed by science and ethics usually creates more problems than are solved.

“How do you put it all together?” those students in New Hampshire wanted to know. For me, it was building a framework for stewardship that simultaneously considered the questions “How does the world work?” “What is right?” and “What then must we do?” This science-ethics-praxis triad is a framework for living, for learning, for teaching, and most importantly for acting. It is a framework for stewardship.

In order to live and act rightly in the world, we need to know how the world works. We need to know how the systems that sustain us work, and how we interact with them. Without such knowledge we could drown in a flash flood, have our homes undercut by desert winds, cross the street in the path of an oncoming car, or get sick from consuming foods with toxic ingredients. As human beings develop more and more of the world, and as the reach of human actions extends regionally and globally, our knowledge must increase accordingly. This knowledge is not limited to what we acquire from a formal education; it also includes the knowledge we gain from family and friends, and from experience and experiment. In order to live and act rightly in the world, we need to know how the world works.

In order to live and act rightly in the world, we need to know what we ought to do. A century ago, this question was addressed in many colleges across America in a course for graduating seniors on moral philosophy. The purpose of this course was to convict students that they should apply their knowledge for the pursuit of good instead of pursuing self at others’ expense. At my university, this aspect of college education is expressed in a quotation from Abraham Lincoln carved in stone on a bench behind Lincoln’s statue at the top of Bascom Hill: “Let us have faith that right makes might, and in that faith, dare to do our duty.” The question “What is right?” is represented by the ethics corner of our triad. Moving directly from the Science corner to the praxis corner, or from the ethics corner to the praxis corner, proves problematic, even disastrous. Consider the result of going from knowledge of nuclear fission (science) directly to producing and dropping an atomic bomb (praxis), or moving from the belief that death is bad (ethics) to removing dead wood from forests (praxis); both are examples of these disastrous shortcuts.

But knowing the science and observing the ethics of this stewardship framework does absolutely no good if it is not put into practice—placed into service. By themselves, the very best science and the most substantial ethics are no substitutes for action. We need to act appropriately and deliberately in the light of scientific and ethical knowledge. Praxis by itself, without being grounded in science and ethics, results in mere activism—activism that is unlikely to do good and that may produce harm. All three corners of the triad are essential—but not by themselves. Taken together and working interactively, they provide a framework for stewardship.

But will these three operate in dynamic interaction? Will they interact in ways that preserve and achieve the integrity of human life and the environment? The answer depends on what we know and understand about ourselves and the world (science), what we believe we should do (ethics), and what we in fact do, and how we respond to our successes and failures (praxis). It depends on our will, our motivation, our determination, and our dedication to strive for a harmonious world of creatures before their Creator. What might make us strive for such a world?

Part 3 explores the challenge of translating ideals into concrete actions.

A careful study of this chapter is important because it gives us a beautiful picture of the proper relationships we should have with God, the natural world, and each other. Numerous posts could be written on each of these relationships, but in this post I’d like to focus on how Genesis 2 describes our relationship to the rest of creation. These relationships are given deeper significance when we recognize that the garden is being described as a temple-like “sacred space,” not just an ordinary garden. There are numerous clues in the passage that this is the case. John Walton writes that the Garden/temple parallels “are givens that are simply assumed by the author and audience” ¹ of Genesis, but we completely miss them if we take fail to read the text the way the ancient author and audience would have.

Temples and Gardens

In the Ancient Near East (ANE), all sacred space was conceived of as something like a temple; it was a place where humans would serve God and experience their closest access to Him. Thus in ANE cultures, a temple complex was seen as being the apex and a microcosm of creation and the earthly abode of the god(s). Descriptions of temples often pictured a river flowing from under the temple and flowing out through an adjacent garden, symbolizing the fertile extravagance of the divine provision. A temple garden would be no mere backyard vegetable patch, but rather an elaborate, beautifully landscaped botanical park.

The same temple/river picture can be seen in the description of the eschatological temple in Ezekiel (ch. 47) and Revelation (chs. 21-22, where the final temple is God Himself). Sound familiar? In Genesis 2 we also have a river flowing “from Eden [‘Abundance’] to water the garden” (v. 10).² Not only is the Garden filled with “every beautiful tree with edible fruit” (v. 9), but the area itself is rich with gold, resins, and gemstones (sometimes translated “bdellium and onyx”), the same materials later used to decorate Israel’s tabernacle, temple, and priestly garments. Furthermore, many scholars are convinced that the design of temple’s Menorah (candlestick) deliberately echoes the Garden’s Tree of Life, and some also think that the Ark of the Covenant in the temple parallels the Tree of the Knowledge of Good and Evil.³

Made for Sacred Service

As inhabitants of this temple-garden, it comes as no surprise that Adam and Eve enjoyed a special closeness to God’s presence (Gen. 3:8 pictures God taking an evening walk through the Garden). But as inhabitants of the Garden, they had special responsibilities as well; they were told “to farm it and take care of it” (v. 15). The two Hebrew words used here have a broader range of meaning than their English translations suggest. As John Walton writes, the broader meaning of the word here translated “to farm” (particularly when used in a sacred context) “is often connected to religious service deemed as worship (e.g., Ex. 3:12) or of priestly functionaries serving in the temple precinct (e.g., Num. 3:7-10).” ⁴

The usage in Genesis 2 seems to have two layers of meaning: “farm/cultivate the Garden” (since it is an agricultural space) and “serve/worship God” (since the Garden is also a sacred space). The dual meanings are as intertwined in Hebrew grammar as they are intended to be in practice. The second Hebrew word (translated “take care of”) has a deeper religious meaning as well. The word can refer to protecting farmland from external threats, but in a danger-free sacred space like the Garden, the word more generally refers to “performing duties on the [temple] grounds,” that is, to “sacred service.”⁵

Walton therefore translates these two Hebrew words as “serve and preserve.” These same words appear again together several times in Numbers to describe the priest’s duties in the temple. Because of all this, Gordon Wenham describes Adam as “perhaps…an archetypal Levite” with a “quasi-priestly” role in the garden.⁸ Eve was created as Adam’s companion and “helper” in his work, a word which nowhere in the OT refers to a subordinate assistant, but rather to one who is at least equal to the one being helped.⁹

Genesis 2 should banish from our minds any idea that creation care is somehow “secular” work for a Christian, or that it is not even our responsibility. This was the first task given to humanity, to serve and worship God by cultivating and protecting the natural world. The centrality of our responsibility in this regard is even clearer when we back up to the beginning of the chapter. We know there was a river “flow[ing] from Eden to water the garden” (v. 10), symbolizing that “all fertility emanates from the presence of God.” ¹⁰ Nonetheless there could be no cultivated plants in the garden because “there was still no human being to farm the fertile land” (v. 5). With no gardener and no rain, the ground was watered indiscriminately; a human was needed to irrigate the waters and support a garden.¹¹ Therefore, God “formed the human from the topsoil” (Hebrew wordplay equivalent to “human from the humus”) before planting the garden. God certainly could have watered it another way without needing us, but He chose not to, and the resulting collaborative picture here is a beautiful one. All provision flows from God, but He has chosen to give us an essential part in further channeling his provisions in the natural world. Far from countering God’s creative work by destroying nature, we are intended to work with Him to preserve and further it.

Of course, though created primarily to glorify God, the world was also made to provide us abundantly with the food and resources that we need to live (Gen. 2:16). Yet we don’t need to look far to see that we have often failed in our responsibility to properly care for creation. We live in a fallen world, and sin has fractured the intended harmony of our relationships with God, creation, and each other (as described in Genesis 3:14-24).

I recently heard a striking crystallization of this fallen perspective in Spencer Tracy’s narration in the opening scene of the sprawling 1962 western film “How the West Was Won.” As the camera flies over majestic Western fields and mountains, the narrator tells us that “This land has a name today, and is marked on maps. But the names and the maps all had to be won, won from nature and from primitive man.” This is the fallen perspective – advancing our human purpose on earth is done through defeating nature and other people (derogatively labeled “primitive,” as well) apart from God. This perspective perfectly illustrates the conflict-based relationships that sin brings about, already described for us back in the first chapters of the Bible.

Are we doomed, then, to live helplessly in this way? If this is just the way the world is and the way we are, shouldn’t we just accept that? Apart from Christ the answer would be “yes,” but the New Testament makes it clear that though we are still fallen, the saving work of Christ has brought about a profound change in us. As N.T. Wright makes clear in his book Surprised by Hope, Jesus taught (and the Resurrection vindicated) that the Kingdom of God “was and is breaking in to the present world, to earth.” ¹² Christ’s Resurrection was the first act of the future new creation. If we are truly “born again” into this new reality, this new way of living, we must strive (in the Spirit’s power) to live lives of wholeness and right relationships, putting our sinful nature to death (Colossians 3). In doing so, we would be wise to include Genesis 2 as we seek to follow God’s will and God’s Kingdom, “on earth as it is in heaven” (Matt. 6:10).

In part 2 of this series, David describes how Genesis 1, Genesis 2, and modern scientific accounts offer complementary and mutually enriching perspectives in our understanding of God's creation.

Notes

1. John H. Walton, Ancient Near Eastern Thought and the Old Testament: Introducing the Conceptual World of the Hebrew Bible (Grand Rapids, MI: Baker Academic, 2006), 125.
2. Biblical quotations are from the Common English Bible unless otherwise noted.
3. Both symbolized divine wisdom that humans had to receive from God obediently, with the proper “fear of God” that the Old Testament wisdom literature stresses as a prerequisite. Disobediently eating the Tree’s fruit would lead to death and disobeying God would lead to expulsion from the Garden. Similarly, disobediently touching the Ark brought death (Num. 4:15, 2 Sam. 6:1-7) and disobeying God’s instruction led to Israel’s exile from their Eden, the land of Canaan.
4. John H. Walton, Genesis (Grand Rapids, MI: Zondervan, 2001), 172.
5. Ibid., 173.
6. Ibid., 192.
7. See Numbers 3:7-8, 8:26, 18:5-6.
8. Gordon J. Wenham, “Sanctuary Symbolism in the Garden of Eden Story,” in “I Studied Inscriptions from Before the Flood”: Ancient Near Eastern, Literary and Linguistic Approaches to Genesis 1-11, ed. Richard S. Hess and David Toshio Tsumura (Winona Lake, IN: Eisenbrauns, 1994), 401.
9. Walton, Genesis, 176.
10. Ibid., 170.
11. This follows Walton’s illuminating exegesis of this passage in Genesis, 164-65.
12. N.T. Wright, Surprised by Hope: Rethinking Heaven, the Resurrection, and the Mission of the Church (New York: HarperOne, 2008), 201.

According to Merriam Webster, the term “intelligent design” has been used since at least 1847, in reference to “the theory that matter, the various forms of life, and the world were created by a designing intelligence.” That’s a decent definition, also consistent with those offered by today’s proponents of intelligent design (ID). For example, the leading ID think tank, The Discovery Institute (Seattle), has this:

Intelligent design refers to a scientific research program as well as a community of scientists, philosophers and other scholars who seek evidence of design in nature. The theory of intelligent design holds that certain features of the universe and of living things are best explained by an intelligent cause, not an undirected process such as natural selection.

And in the opening sentence of a book he edited with philosopher Michael Ruse, ID theorist William Dembski said, “Intelligent Design is the hypothesis that in order to explain life it is necessary to suppose the action of an unevolved intelligence.” (Debating Design, p. 3)

On the other hand, while a recent contest on a prominent intelligent design (ID) website uncovered several other early uses of the term, it is important to note that it does not always mean exactly the same thing in each reference. The term itself has an interesting history, and while ID authors obviously did not invent the term “intelligent design,” they have given it specific content in recent years. Indeed, they have even removed content in some cases: a point I will return to later is that, though it seems the only viable candidate for such an “unevolved intelligence” is God, ID proponents sometimes seem to do cartwheels to avoid saying as much. When a term has such a complicated past, there simply is no substitute for looking at specific references in their own contexts as we move to seeing how ID plays out today as one of the 5 ways of relating science and the Bible.

Interestingly, many Protestant “modernist” scientists and theologians from William Jennings Bryan’s day (see my previous column) unhesitatingly endorsed the idea that a designing intelligence lay behind nature. At least one such person, Nobel prize-winning physicist Arthur Holly Compton, even used the very term “intelligent design” in an address he gave at a Unitarian church in 1940: “The chance of a world such as ours occurring without intelligent design becomes more and more remote as we learn of its wonders.” (Quoting his pamphlet from 1940, The Idea of God as Affected by Modern Knowledge, p. 13. For more about this aspect of Compton’s views, click here.) However, Compton regarded design as a philosophical and theological inference from science, not an explanation within science to be invoked when other explanations fail. He also accepted the common ancestry of humans and other organisms. This is a significant difference from the ID movement today, which offers ID as a scientific alternative to Darwinian evolution and (at least in many cases) seeks to undermine public confidence in common ancestry (even though ID per se is not actually opposed to it).

If any ID proponents are sympathetic to the type of religious modernism that Compton and his friends embraced, I cannot tell you who they are. In a curious, ironic twist, ID is often used by conservative Christian apologists partly to defend a cluster of traditional theological and hermeneutical positions that none of the modernists would have defended. A further irony: the intellectual descendants of the modernists—those scientists and theologians who occupy the left wing of the modern “dialogue” of science and religion—exhibit a studied avoidance of the term “design,” disconnecting them on that score from the modernists of the 1920s.

Many other contemporary writers, including some evangelical TEs, are also reluctant to use the word “design,” precisely because in their view it has been co-opted by ID proponents and they do not want readers to misunderstand their position(s). They may agree with ID proponents that certain features of the universe reflect divine design, but because they do not see design as a scientific explanation they employ other language. (Likewise, the YECs have co-opted the word “creationism” to mean just one specific understanding of God’s creative activity, leading most advocates of other views either to provide their own definitions of the word or else to avoid using it altogether. Politics dogs this conversation at every turn.)

Core Tenets or Assumptions of Intelligent Design

With that bit of historical context for the term “Intelligent Design,” let’s now look at the first of the Core Tenets of this perspective in its current state, and as it is most often used by those associated with the Intelligent Design movement.

(1) The Bible is NOT to be mentioned (at least for now); ditto for “God” and “theology” as far as possible.

This is a deliberate strategy, adopted for political reasons to keep arguments at the level of philosophy and science. Here, “political” refers to the American political system, with its constitutional disestablishment of religion, not to partisan politics. Since the 1980s, federal courts have consistently ruled that “creationism” (which was specifically of the YEC variety in the relevant cases) is sectarian religion, not science, and therefore it cannot be taught in public school science classes. Anxious to avoid a similar fate, proponents of ID always want to ensure that they are not perceived as advocates of “creationism.” The less they mention God and the Bible, the reasoning goes, the less likely they are to fall afoul of those decisions.

The First Amendment to the U.S. Constitution, pertaining to the freedom of religion and the freedom of the press.
Source: http://www.rochester.edu/college/psc/images/Courses/Spring2008/FirstAmendment.png

Phillip Johnson, the former law professor who effectively began the ID movement some twenty years ago, has put it bluntly: “To put things on a more rational basis, the first thing that has to be done is to get the Bible out of the discussion.” He quickly adds, “This is not to say that the biblical issues are unimportant; the point is rather that the time to address them will be after we have separated materialist prejudice from scientific fact.” (“The Wedge: Breaking the Modernist Monopoly on Science,” Touchstone: A Journal of Mere Christianity, July/August 1999, p. 22.)

If God and the Bible are really to be left out for the time being, then why am I discussing ID in a series on “Science and the Bible”? It’s a fair question. I simply don’t see any way meaningfully to avoid talking about ID apart from the culture wars in which it is embedded (I’ll say more about this in a subsequent column), and the Bible is never far from the surface when the battle being fought involves origins. Conservative Christians sense that ID really is about God—Dembski’s “unevolved intelligence”. As Dembski himself has said, “no intelligent agent who is strictly physical could have presided over the origin of the universe or the origin of life”, and there aren’t a lot of candidates for that job. Many Christians also identify strongly with the ways in which ID seeks to confront the secular establishment, in an explicitly-stated effort to combat what Johnson calls “the modernist scientific and intellectual world, with its materialist assumptions.” (“The Wedge,” p. 23.) They see it as a way of getting traditional theistic perspectives and Christian values back into the academy, once “design” has become an acceptable academic talking point—and it isn’t very far from there to conversations about “science and the Bible.” If this were not so, then why would so much ID literature be published by Christian presses? Indeed, when I tell church audiences with a straight face that ID purports not to be about the Bible at all, I’m usually met with considerable skepticism.

When I’m back in about two weeks, we’ll look at further Core Tenets of ID—the ones that have even less to do with the Bible, explicitly, and more to do with the way we approach the study of the natural world.

The first video, “10 Questions with Katherine Hayhoe”, introduces the scientist in a brief and lighthearted interview. Hayhoe is presented with 10 questions concerning her personal life and beliefs. When asked, she explains that one thing people should know about Christianity is that having a relationship with the God of the universe is one of the most incredible experiences that a person can have. As the video unfolds, the viewer quickly begins to realize that, despite her unique profession of two seemingly incompatible beliefs, Hayhoe is a remarkably sane and “normal” individual. Her role model, she explains, is her father-- the person who first introduced her to science and showed her that it could be “really cool”. On a more serious note, the scientist admits that being both a scientist and a Christian can be difficult. The most frustrating thing about her position, she says, is the amount of disinformation which is targeted at her very own Christian community.

In the second video, “Climate Change Evangelist”, Katharine Hayhoe delves into deeper discussion of the perceived conflict between climate change and Christian faith. She explains that admitting her identity as a Christian scientist can be uncomfortable. Since evangelicals are the targets of much disinformation concerning science in general -- and specifically the science surrounding climate change -- many people in the church have a misguided view of the subject and do not look kindly at her career choice. One woman encountered by Hayhoe at a church in Texas, for example, believed that global warming was a lie taught in schools to mislead her children. In an effort to realign misguided views like these, Katharine Hayhoe and her husband wrote a book addressing the deep-rooted emotions often associated with climate change. People fear that addressing the climate issue will bring forth changes in the economy and uproot their way of life. However, Hayhoe encourages her viewers to act out of love, as the Bible calls us to do, rather than out of fear. Acting out of love inspires us to consider the poor and disadvantaged people around the globe when we respond to the reality of a changing climate.

In the final segment of this three part video montage, Hayhoe addresses the question of what climate change means. Specifically, she is concerned about how global warming affects people on a personal level. While global warming generally brings to mind melting ice caps and polar bears, its implications are far more widespread, affecting the lives of everyone around the world- from cotton farmers in Texas to public health workers in Chicago. If nothing is done to change current emission levels, the number of days per year which exceed 100 degrees Fahrenheit, for example, will begin to increase dramatically, and if emissions are increased, many areas will even develop extreme conditions like those seen currently in Death Valley. Hayhoe’s goal is to demonstrate clearly that the only way to preserve the world for future generations is to significantly reduce dependence on inefficient means of getting energy and instead transition to cleaner renewable energy sources.

Editor's Note: These videos first appeared on the Nova program "The Secret Life of Scientists & Engineers".

Asa Gray

If Thomas Huxley earned the title of "Darwin's bulldog," then Asa Gray should be remembered as "Darwin's dove." Whereas Huxley enjoyed a good fight in his defense of Darwin's theory, Gray sought to mediate and bring sides together around a common understanding of "good science." As Darwin's strongest and most vocal scientific ally in the United States, Gray recognized the scientific importance of Darwin's efforts for the growing professionalism of biological researchers.

But as an orthodox Christian, a Presbyterian firmly devoted to the faith expressed in the Nicene Creed, Gray saw in Darwin's theory both evidence for his philosophical commitment to natural theology and support for his opposition to the idealism advocated by Louis Agassiz and the Naturphilosophen in both Europe and America. Indeed, Agassiz's advocacy of Platonic forms as a basis of biological understanding (e.g., "A species is a thought of the creator")¹ would be a major source of American opposition to Darwin's theory.

Professor of botany at Harvard during most of the middle half of the nineteenth century, Gray was one of the few members of the scientific community to whom Darwin revealed his theory before the publication of On the Origin of Species, and, from what I can tell, the only American. Gray and Darwin met briefly in January 1839 during one of Gray's visits to England. Later, during the 1850s, Darwin wrote Gray on several occasions requesting information--a practice that Darwin frequently employed. In 1854, Darwin's friend and confidant, Joseph Hooker, showed Darwin Gray's review of Hooker's Flora of New Zealand, in which Gray had argued strongly against Louis Agassiz's idealism and had raised questions from his own work on the stability of species. Gray was not yet ready to deny their permanence, but hybrids and other observations were beginning to trouble him.

The next year Gray wrote a lucid and penetrating positive evaluation of Alphonse De Candolle's two-volume Géographie botanique raisonnée, a pioneering work dealing with plant geography and distribution from a statistical perspective. Hooker had sneeringly dismissed the work. In A. Hunter Dupree's authoritative biography of Gray, he describes Gray's puzzlement at Hooker's response in these terms:

Although in the long view Gray's evaluation of the epoch-making nature of De Candolle's book was more justified than Hooker's sneers, [Gray was confused by his response, for] Hooker seemed to be talking with a more comprehensive theory definitely in mind, some reason for taking his position, which he did not divulge and which his friend [Gray] did not possess.²

Darwin, however, saw in both Gray's review of Hooker's book and in his comments on De Candolle's tome that Gray was troubled by some of the same empirical data that had been bothering him. In April 1855, Darwin wrote Gray to urge that Gray update his Manual of the Botany of the Northern United States first published in 1848, and especially to address the issue of the range of Alpine plants in the United States. Specifically, he said: "Now I would say it is your duty to generalise as far as you safely can from your as yet completed work."³

Behind this request was Darwin's desire to test his impression that Gray could make a good ally. Gray passed the test, and finally, in July 1857, Darwin let Gray in on his theory of the transmutation of species. Gray was never an uncritical supporter, and there are many evidences in the correspondence between these two scientists that Gray was willing to challenge Darwin and disagree with some of his conclusions. Nevertheless, Gray saw the importance of Darwin's work and the ways in which it provided answers to the troublesome issues that he had confronted in his own botanical efforts.

Gray responds to Darwin's theory

After considerable interchange--one might even say debate--among Gray, Darwin, and Hooker, Gray wrote to Hooker in October 1859 (one month before the publication of On the Origin of Species) saying that he had absolutely no problem with cognate species arising by variation. He did, however, raise a concern that would be the source of much future discussion. He wondered about Darwin's "carry[ing] out this view to its ultimate and legitimate results,--how [do] you connect the philosophy of religion with the philosophy of your science." He added: "I should feel uneasy if I could not connect them into a consistent whole--i.e., fundamental principles of science should not be in conflict."⁴

When Origins was published, Gray wrote a clear, positive, yet critical review in The American Journal of Science. Aware of mounting religious opposition, he ended his review by arguing that whereas one could use Darwin's theory in support of an atheistic view of Nature, one could use any scientific theory in that way. He wrote: "The theory of gravitation and ... the nebular hypothesis assume a universal and ultimate physical cause, from which the effects in nature must necessarily have resulted."⁵ He did not see the physicists and astronomers who adopted Newton's theories as atheists or pantheists, though Leibniz earlier had raised such reservations. And a similar situation existed with the origin of species by natural selection. Darwin, Gray continued: "merely takes up a particular, proximate cause, or set of such causes, from which, it is argued, the present diversity of species has or may have contingently resulted. The author does not say necessarily resulted."⁶

This far Gray could go with Darwin. But there was a point at which he parted company, and that was the fortuitous randomness of the process that Darwin's theory seemed to imply.

In part 2, Dr. Miles describes Darwin's struggle with the problem of natural evil and design in nature.

Notes

1. Cited in A. Hunter Dupree, Asa Gray: American Botanist, Friend of Darwin (Baltimore: The Johns Hopkins Press, 1959), 151. 2. Ibid., 236.
3. Charles Darwin, More Letters of Charles Darwin, ed. Francis Darwin, (New York: D. Appleton and Company, 1903), 252.
4. Dupree, Asa Gray, 266.
5. Asa Gray, "The Origin of Species" in Darwiniana (Cambridge, MA: The Belknap Press of Harvard University, 1963), 44.
6. Ibid.

Along the side of our patio in front of our family garden, I grow grapes. I was inspired to grow them from the tradition of my mother's homeland in Cyprus, where grapes, olives, figs and lemons adorn the patios of each house. I was challenged to grow them well by the words of Jesus in John 15: "I am the vine, you are the branches, I will prune you to produce much fruit." Pruning is the secret to successful grapes, but that's another story.

The point is that in tending that grape arbor and our family garden, and exploring the beautiful landscapes we are blessed with in Virginia, my wife Elizabeth and I, along with our three daughters, are in communion with the Creator and Sustainer of heaven and earth. That may sound like a lofty statement, but for me, nature, His created order, is where I find Him most personally. I have known and recognized this since I was a boy.

Though born in Richmond, I was raised in Portsmouth, Virginia, where my father and I would fish along the Elizabeth River and the Chesapeake Bay. With my friends, I hunted in the Great Dismal Swamp. My father grew up on my Grandpa's farm in Tennessee near Bristol and he took our family back there often. My grandfather was one of those vanishing breeds of men who had fidelity and love for the land. He was dependent on the land for his food and a few cash crops for income. He was intimately tied to the rhythms of the seasons and his work in the fields.

My grandfather and my aunts and uncles looked at this work as a partnership with the Lord. They taught me how to care for the land, as well as the names of plants that grew in the forests and along the streams that surrounded their farms. They also taught me skills that made me appreciate their way of life. Through these early experiences, I became fascinated with an essential question: What makes nature tick? I also developed an interest in the spiritual relationship between God and His creation. And so the journey began.

I took up the study of biology at Virginia Tech focusing on stream ecology, and then worked as a field biologist surveying rivers throughout the Southeast. Eventually, I returned to graduate school to study forest ecology in the Shenandoah National Park. My faith in the biblical account of creation was challenged by professors who taught evolution as the mode of creation of living things.

This challenge I brushed aside until I began teaching biology at a community college in Clifton Forge. The words in the textbooks and the words of Genesis took on new meaning. Did they contradict each other? Could all forms of life really evolve by chance? Weren't we created in His image? My students questioned me about this conflict and I started a search for the answers.

For several years I wrestled with these questions as an intellectual exercise. I began to make progress only when I started answering with my heart along with my head, aided by that other gift received from my parents, trust in the power of prayer. Looking back, this doubt and questioning, this need to have all the answers, made my faith real exactly as it taught me that I don't need to have all the answers: that is where faith comes in.

I do know with certainty that God created the heavens and the earth, and manages and sustains His creation even today. I cannot know with certainty how He did it with such precision and beauty. How God created is still a mystery that science, by its methods, tries to discover and cannot fully explain, and one that the Bible is mostly silent on.

To me, there should be no contradiction between science and the Bible. In the beginning, God was there and science cannot speak to that. It is by faith that I know that God created the world not by chance, but for his purposes and glory. The precision of natural order and its beauty have always focused me on the Creator, just as Paul states in Romans that all creation bears witness to God. The more I study nature and natural sciences, the more it drives me back to God who made all things.

In time, I was hired by The Nature Conservancy in Richmond as the ecologist and director of a new biological inventory for Virginia. Then another faith question came. Why did the Church not speak to the Christian practice of stewardship as it relates to creation? Why did many in my profession worship the creation and not the Creator?

I stumbled upon the work of Wendell Berry, who has since become one of my favorite authors. In a short essay he wrote in 1988 entitled God and Country, he said we must deal with the true meaning of Genesis 1:28 where God told Adam and Eve to "be fruitful and multiply and replenish the earth and subdue it." He was right. Berry noted that many people use the words "dominion" and "subdue" as "unconditional permission to use the world as they please." I came to realize, like many, that such an interpretation is contradicted by the rest of the Bible.

The ecological teaching of the Bible is clear. God made the world and it pleased Him. It is His and He loves it. He has never given up title to it. He wants us to take excellent care of it. In Genesis we see it in His instructions to Adam and Eve in the Garden; in Leviticus 20, we see it in the Sabbath year and the Jubilee—laws governing land use, land rest and God's ownership of the land; in Psalm 24 David affirms "the earth is the Lord's and everything in it"; Jesus, in Matthew 6, tells us not to worry, for if God cares for the birds and plants, he'll also care for you; and in Romans 8:19, Paul says the creation eagerly awaits freedom when right relationships will be restored.

Biblical ecology is really a moral understanding of what God expects of us in relation to the natural world, but also in relation to the other people with whom we share it. This kind of stewardship has only been recently talked about in the Church. It means careful management, not destruction and abuse. It is infinitely practical because a healthy planet is in our best interest (we depend on its fruitfulness, after all), but biblical stewardship is also an act of loving our neighbors as ourselves, of loving even our children and grandchildren, by leaving them a decent place to live.

Psalm 8 lays out a mystery that, with the rest of Scripture in mind, invites a response in action as well as praise: "When I consider the heavens, the work of your fingers, the moon and stars you have ordained, what is man that you are mindful of him?" After more than 20 years with The Nature Conservancy in Richmond, Elizabeth and I have made a home for our family and have a church home, as well—all places in which we can respond to that mystery by bearing fruit. And though my answering the call to use my talents and time in each of those realms branches in many directions, it is always rooted in my awe of God, who created and sustains the universe and seeks a relationship with us. It is a call I live out in my vocation of protecting and restoring the lands and waters in Virginia, and a call our family lives out in our garden, in our frequent excursions in the outdoors, our worship of the Lord in church and at home, and, yes, even in growing grapes.

It didn’t seem right to deposit such a gift unreflectively into our bank account, allowing it to be swallowed up anonymously into our daily expense fund. My wife Sarah and I talked about a symbolic way we might use the money to honor John’s mark of grace on both of our lives. We very quickly settled on our decision: an SLR camera with a fine telephoto lens.

Many people remember John Stott for his books and preaching, but fewer remember him for his love of creation, his ornithological passion, and his knack for bird photography. On the very first day of my job working as his study assistant, I found on my desk a brand new set of binoculars and a copy of “Birds of Europe,” by Lars Johnson (the definitive guide). No study assistant was to work for John unless we shared in his love for birds, or at least could ably feign it. I soon discovered how seriously he took this avocation. In London he would stop whatever meeting we might be rushing off to in order to catch a look at a passing Kestrel. At his writing cottage in Southwest Wales we would begin every Sunday morning at Pickleridge Pools to see the Loons and Cormorants. Wherever we traveled, whether Uganda, India or Hungary, we would always schedule an extra few days to visit the local bird life with the accompaniment of a local expert.

But I also discovered that his love for birds was an extension of his love for creation and for its Creator. Uncle John took seriously the Psalmist’s words, “Great are the works of the Lord, studied by all who delight in them” (Ps 111:2). Taking “the works of the Lord” to include both God’s work of creation and redemption, he would often say that nature study and Bible study must go hand in hand. He was ahead of his time in calling Christians to have a more robust doctrine of and appreciation for Creation, and he viewed having at least one pursuit in the realm of natural history as an outflow of Christian discipleship. Indeed, it is striking that in his very last book, The Radical Disciple, in which he reflects on “some neglected aspects of our calling,” he includes “Creation Care” among Christian responsibilities like Christlikeness and Dependence.¹ And as remarkable as his accomplishments were in authoring such influential books as Basic Christianity and The Cross of Christ, it was his much less well known book The Birds Our Teachers,² which includes over 150 of his own photographs, that he would most often pull out to show visiting guests.

Some criticized John for his theistic evolutionary position and even his appreciation for Darwin, who John viewed as a man genuinely conflicted with how his discoveries could be integrated with his personal Christian faith. But Stott saw no contradiction between his own commitment to the authority of Scripture and his openness to God’s use of evolution in His creative process. He was of course unequivocal in his assertion that “One cannot be a Christian and not believe in creation.”³ Yet believing that Genesis 1 speaks more to the “why” rather than the “how” of creation, John also affirmed, “Those Christians who believe in evolution…mean that the huge variety of animal and vegetable forms can best be accounted for not by the independent creation of each, but by a gradual process of ‘descent with modification’, whether or not Darwin’s ‘natural selection’ is the best explanation of its mechanisms.”⁴ If anything, for John the possibility of God’s implementation of the evolutionary process was a striking example of the way God does not simply create but is also actively involved in sustaining and ordering His world.

So on the date of John’s birthday, April 27, we used his gift and bought our new camera. Laying it out on the table, I realized I needed a spacious and protective carrying case to hold the various lenses and equipment. I climbed up into the attic and retrieved John’s old camera bag, which he passed on to me after he had his second embolism and could no longer see well enough to take photographs. As I opened it up and examined the various lenses and mounts inside, now too old to adapt to any of the modern equipment, I realized I was holding in my hands the tools of one man’s passion and an expression of his love for his triune creator God. Deeply moved, I picked up my own camera, a new tool for my own stewardship of created life, and headed outside.

Notes

1. John Stott, The Radical Disciple (IVP, 2010).
2. John Stott, The Birds Our Teachers: Biblical Lessons from a lifelong bird-watcher (Angus Hudson, 1999).
3. Ibid.
4. John Stott, People Our Teachers (Angus Hudson, 2002), 110.

I ask the question, “Why is the universe so special?” Now scientists don’t like things to be special; we like things to be general, and our natural anticipation would have been that the universe is just a common or garden specimen of what a universe might be like.

But we’ve come to understand a lot about the history of the universe. We know that our universe started 13.7 billion years ago, and it started extremely simple, just an almost uniformly expanding ball of energy, about the simplest physical system you could possibly think about. But a world that started so simple has of course become rich and complex. With you and me, in fact, the most remarkable and complex consequences are its history, at least of which we are aware. The human brain is far and away the most complicated physical system we have ever encountered anywhere in our exploration of the universe.

That fact itself might suggest that something has been going on in cosmic history rather than just one thing after another. But we’ve also come to understand many of the processes by which this rich fruitfulness has come to birth. As we’ve come to understand these, we’ve come to see that though these processes are of course evolving processes, they took long periods of time – the universe was 10 billion years old before any form of life appeared in it, at least as far as we know anyway – and life of our complexity only appeared yesterday.

Nevertheless, the universe is pregnant with life, pregnant with the possibility of life, essentially from the beginning onwards. By which I mean the given laws of nature had to take a very specific, very finely tuned form, if the universe was to have so fruitful a history.

That’s a very remarkable discovery, and let me give you some examples of why we believe that. If you’re going to have a fruitful universe, one of the first things you have to get right is that you have to have the right stars in the universe. The stars are going to have a very important role to play. First of all, you must have some stars that are going to be very long lived, live for billions of years, steadily burning, steadily producing energy which will enable the development of life on one of the encircling planets. We understand what makes stars burn in that sort of way very well, and it depends on a delicate balance between the strength of gravity and the strength of electromagnetism. Electromagnetism is the force that holds matter together. The seats on which you are sitting are held together by electromagnetism and in fact you are held together by electromagnetism.

If you alter that balance a little bit in one direction the stars will begin to burn intensely, furiously, just pouring out energy and they will only live a few million years rather than a few billion years. If you move it a little bit in the other direction they will burn so slowly they will be brown stars and they will not produce enough energy to fuel the development of life. So you have to have a very delicate finely tuned balance between the strength of gravity and the strength of electromagnetic forces in a fruitful universe.

Remember, science takes the laws of nature, takes the given strengths of gravity, the given strength of electromagnetism, uses that to explain processes in the world, how things happen, but it doesn’t explain where those laws of nature come from. They are just brute facts as far as science is concerned.

And the stars have another absolutely indispensible role to play. The stars are the place where the heavier elements essential for life are made in the interior nuclear furnaces. There are many elements that are necessary for life, of which carbon is perhaps the most essential. Carbon is the basis of the long chain molecules, which are the biochemical basis of life. The early universe only makes the simplest elements; it makes hydrogen and helium and it makes no carbon at all. Carbon only begins to be made when the universe, which started uniform, begins to condense and become lumpy and grainy with stars and galaxies. As the stars condense they heat up, nuclear processes begin again in their interiors. And it’s those nuclear processes in the stars that make carbon and the heavier elements. Every atom of carbon in your body was once inside a star. We are people of stardust made in the ashes of dead stars.

And that’s a very beautiful process that takes place in that sort of way. And one of the great triumphs of astrophysics and the second half of the 20th century was to unravel that process. One of the people who did some of the most important work on that was a senior colleague of mine in Cambridge called Fred Hoyle. And they were trying to figure out how to make carbon. They got helium, and if you can make three helium nuclei stick together that will produce carbon, but when you have something as small as a nucleus it is impossible to get three to stick together at one time, they’re just too small.

Ok, so let’s do it step by step. Stick two together gives you berylium. Helium 4 gives you beryllium-8, hope it stays around for a bit, another helium comes along, attaches itself, and bingo, you’ve got carbon-12. That’s the obvious thing to think about but it doesn’t work in the obvious way, and the reason it doesn’t work in the obvious way is that beryllium-8 is terribly unstable. It doesn’t oblige you by staying around long enough to catch that third helium, at least in an ordinary, straightforward way.

But Fred realized that it would be just possible for this to happen if there was a very large enhancement effect, in the trade we call it resonance, occurring in carbon at just the right energy, it has to be the right energy, which would enable that attachment process to catch that third helium much much more quickly that you might have thought, in fact so quickly that some of them would get caught before the beryllium-8 disappeared. It was a very good idea, and he must have felt pretty pleased with himself and he went off to just check in the nuclear data tables of this particular resonance’s energy levels, and it wasn’t in the tables, but he knew it must be there, he’s carbon based life like you and me.

So he rang up some friends in the States, a father and son team who were good experimentalists and he said, “Look, you missed something. There’s a resonance and energy level in carbon that you haven’t spotted, and I’ll tell you exactly where to look for it. I know exactly where this energy has got to be. You go look for it.” And they said, “No, no, we don’t want to do that, we have more interesting things to do.” But Fred was very determined and he bullied them into looking for it and they found it.

Now that’s a wonderful achievement, to predict an energy level in carbon on the basis of how it might have been made in the stars is a fantastic scientific achievement. But it’s more than that. Fred had a lifetime conviction of atheism, realized of course that if the laws of physics had been just a little bit different that resonance wouldn’t have been there, and the possibility of carbon-based life is too significant for it just to be a happy accident in his view, so he says in a Yorkshire accent that is beyond my power to imitate, he said that the universe is a put-up job. Fred didn’t like the word God, and so he said some Intelligent, capital “I” Intelligence, must have monkied with the laws of nature to make carbon production possible. What that could possibly be I don’t know, but the more sensible thing to say is that creation is ordained, that the laws of nature would be such, as to enable the fruitfulness of carbon-based life.

We’ll come back to evaluating that possibility in a minute, but before we do, let me give you two other examples of how specific, how special, our universe has to be for us to be able to be here today to think about. We live in a universe that is immensely big, beyond our powers to imagine really. There are a hundred thousand million stars in our galaxy in the Milky Way, of which our sun is just a common or garden specimen, and there are about a hundred thousand million galaxies in the observable universe, of which our Milky Way is a pretty common or garden specimen. So we live in a world that is unimaginably vast, and sometimes we might feel upset by that and think, “What could be the significance of us who are simply inhabitants of a speck of cosmic dust, as you might say, in this vast, vast universe?”

Nevertheless, if all those stars were not there, we would not be here to be upset at the thought of them. Because there is a direct connection between how big a universe is and how long it lasts, and a universe that is significantly smaller than our universe would not have been able to last the 14 billion years, which is the necessary time to produce beings of our complexity. So that’s another condition of the world that has to be right for human beings, or something like human beings, to be a possibility.

One final example, which is the finest tuning of all: quantum theory suggests that there should be an energy attached to space itself. In quantum theory the vacuum, so called empty space, is not just a void. There are things called vacuum fluctuations which occur in a continual sort of seething mass of things coming into being and going out of being all the time. So while there is nothing there that doesn’t mean there is nothing happening. That may sound strange and paradoxical but believe me that’s what quantum theory implies. And of course these happenings, these fluctuations, generate a certain amount of energy, we call it “zero point energy”, and that energy is spread out over the whole of space. So we expect there to be energy associated with space.

And just recently the astronomers have discovered something called dark energy which is driving the expansion of the universe, which is just such an energy associated with space. Well that’s very good, you might say. However, when we estimate, just from thinking about quantum theory, how much energy there should be in space it turns out to be a fantastically large amount, and when we see the amount of energy there actually is per volume in space, it turns out to be very, very small in relation to that expected size. In fact, it turns out to be smaller by a factor of 10^-120. That means by a factor of 1 over 1 followed by 120 zeros. You don’t have to be a great mathematician to see that’s a fantastically small number. So some fantastic cancellation has taken place to turn that big number into the tiny number that we actually observe, and if it hadn’t taken place we wouldn’t be here to observe it because significantly higher energy would simply have blown the whole show apart too fast for anything interesting to happen. That’s the finest tuning that we know in the universe: one part in 10¹²⁰.

So we live in a world that is very remarkably finely tuned, and we have to consider that. And all scientists would agree about what I have been telling you; this is non-contentious. Where the contention comes in is what we might make of that, what is the further significance of it.

In the conclusion to Dr. Polkinghorne’s lecture, he looks at two explanations for the "fine-tuning" principle -- the multiverse theory and the existence of a divine intelligence -- and explains why natural theology alone is not sufficient to make the case for a God who interacts and cares for his creation. To make the case for theism, he argues, we need revelation, God's self-disclosure. This is manifest in various ways, including that which we experience personally, including ethics and aesthetics.

Design arguments have been around forever and expressed in various ways. Most of them fall into what we call natural theology, which is the process of inferring something about the existence and nature of God by the inspection of nature. The story of creation in Genesis launches the discussion in the Judeo-Christian tradition when it speaks of God ordering nature and driving back chaos. On the fourth day “God created the sun, moon, and the stars to give light to the earth and to govern and separate the day and the night. These would also serve as signs to mark seasons, days, and years.” All this suggests design and purpose. Job speaks of God making “water drops evaporate” so the clouds can “shower abundantly on mankind.” (Job 36:27-28 HCSB). The psalmist expresses awe at the grandeur of the night sky but remarkably does not comment on the grandeur of his own existence:

When I observe Your heavens, the work of Your fingers, . . . what is man that You remember him? (Psalm 8:3-4 HCSB)

In the New Testament, Paul speaks of the created order testifying clearly to the reality of God, arguing that, “the invisible things of [God] from the creation of the world are clearly seen, being understood by the things that are made” (Romans 1:20 KJV). Biblical scholars have interpreted this to mean that an open-minded seeker can infer the existence of God by studying the creation. As theologians reflected on the nature of the creation these arguments were repeated and refined. Augustine in the fourth century, Thomas Aquinas in the thirteenth century, Luther and Calvin at the time of the Reformation in the sixteenth century—all were understandably convinced that the world had a grand design that was readily discernable. After all, nobody had any other explanation for why birds were adapted to fly, fish to swim and constellations to mark the seasons.

By the time we get to Isaac Newton in the latter part of the seventeenth century, we have the first carefully constructed scientific arguments. Newton, as we learned in high school, explained how gravity from the sun keeps the planets in their orbits. This explanation replaced previous medieval explanations that included the possibility that the planets moved because angels pushed on them. (It also replaced Galileo’s explanation that they moved because of a “circular inertia,” which turned out to be as much a fantasy as the pushing angels.) But Newton’s theory didn’t explain why the planets all go around the sun in the same direction and in almost the same plane. In fact Newton could not imagine any natural process that could produce such elegant design, so he argued that God must be the explanation.

About two centuries later the most famous design argument was developed by William Paley whose Natural Theology Darwin read voraciously as a young scientist. “Suppose I had found a watch upon the ground,” asked Paley, “and it should be inquired how the watch happened to be in that place. . . . [W]hen we come to inspect the watch, we perceive . . . that its several parts are framed and put together for a purpose. . . . [T]he inference, we think, is inevitable, that the watch must have had a maker.” Paley goes on to compare the watch to an eye, arguing that if a watch implies a watchmaker, then an eye implies an eye-maker. The eye-maker, of course, can only be God.

Newton’s argument about the planets and Paley’s about the watch have the same logical form: We find something in nature that appears too ingeniously arranged to have been produced by known natural processes, so we infer that a Designer from outside the natural order—God— must be the source of the design. Their arguments differ, however, on the question of purpose. It was not clear to Newton or anyone of his day exactly why the planets needed to be going about in the orderly way they were observed. If the order was indeed provided by God, no explanation for it could be discerned other than the creation of order for the sake of order. In contrast, the designs that Paley highlighted were clearly purposeful. Our eye is remarkably designed for a purpose other than to elicit awe at its complexity. We see with our eyes. We don’t do anything with Neptune’s nice orbit, other than admire it.

Red Flags

Arguments that the universe is designed are complicated. We certainly live in a remarkable universe with many features that inspire awe. Many of those features connect in astonishing ways to the habitability of the universe. The psalmist’s wonder at the heavens has only grown stronger as we have learned more about those heavens. The universe certainly does not become ever more boring and bland as we come to understand it better.

But we also live in a world with earthquakes, plagues and tsunamis. Our sun will burn out at some point, incinerating the earth in the process. The prospects of securing our future by colonizing other planets seem remote. The long-term prognosis of the universe, by the cold logical lights of science, is not good. Its temperature will continuously drop as it expands for billions of years. Eventually there won’t be enough heat left for any form of life, and finally there won’t even be enough heat for atoms and molecules to interact. This sterile icy blackness is frightening to contemplate. No matter what we do as a species, we and our cultural achievements are destined to perish.

No simple overriding explanation that makes sense of everything comes into view as we learn more about the universe. And experience with past arguments raises red caution flags. For example, Newton’s design argument about the planets was an argument from ignorance that now bears the label “god of the gaps.” There was a gap in Newton’s explanation for the planets. He could explain why their orbits were elliptical and what kept them in their orbits. But he could not explain the uniformity of their orbits, so he invoked God as the explanation to plug this gap—hence the label for such arguments—god of the gaps.

A century after Newton, French physicist Pierre Simon de Laplace dispelled the mystery of the structure of the solar system. He showed that a better understanding of gravity and how solar systems originated could explain the things that Newton attributed to the direct action of God. Laplace’s work did not refute the existence of God, of course. But it did dismantle Newton’s argument that the planetary orbits must have been set up by God, thus eliminating an argument that some had been using to argue for God’s existence.

In a similar way, Darwin’s theory of evolution offers an explanation for the design that Paley marveled at in the eye. Scholars of Paley’s generation knew nothing of natural selection, mutations or genetics, so they could not imagine how nature might craft something so remarkable as an eye. Paley’s argument, like Newton’s, turns out to be another god of the gaps explanation that disappears with further scientific insights into the way the world works.

So this is the first red flag to note—design arguments are all-too-often based on gaps in our knowledge and will disappear when those gaps are filled.

The second red flag concerns the apparent purpose of any design. “Design” can point in many directions or no direction at all. The science museum in Boston has a grand contraption that does nothing except move balls around to no end. The only possible purpose is to impress a visitor with the juxtaposition of complex design and lack of purpose. There is likewise no significance to the patterns of the stars that we call constellations. The “design” of the Big Dipper is simply interesting. The fine-tuning of the universe for life, on the other hand, encourages us to wonder if life may be important in some way. But it does not specify which life forms are relevant and why. And we must note that some features of our world exhibiting a high level of design—like the AIDS virus or the poison of the rattlesnake—seem to have the purpose to destroy human life. If rattlesnakes could reflect on their existence, they could marvel at the carbon resonance that makes that existence possible.

A third red flag we must note is bad design. If marvelous design in the universe motivates reflection on the possibility that God created the world what do we do about the counterarguments? Consider asteroids. A gigantic asteroid struck the Yucatan Peninsula 65 million years ago and so disrupted the ecosystems and the atmosphere of the earth that the dinosaurs went extinct. Absolutely nothing prevents the same thing from happening again. We are protected today largely by the vastness of space and the structure of our solar system with large outer planets that “vacuum up” a lot of stuff that could hit the earth. These various protections make collisions of the sort that wiped out the dinosaurs unlikely. But they offer no guarantees. If the Goldilocks features of our universe are intended to make it habitable, then why does the universe also have anti-Goldilocks features?

Many such issues complicate the process of figuring out why the universe is the way it is. And as we have learned somewhat reluctantly in the last few centuries, the great explanatory power of science disappears entirely when questions of purpose enter the conversation. Science is quite extraordinary at telling us how the world is but quite unable to tell us why the world is like that. Science illuminates the remarkable features of our universe that make life possible, but it goes silent when we ask whether any particular life form is the reason why the universe is the way it is. That deeply religious question has to be explored somewhere else.

These challenges caution us against naively selecting—cherry-picking we call it—a few Goldilocks features of the universe, assuming the friendly design work is for our benefit, and jumping to the conclusion that everything points simply and unambiguously in the direction of God as Creator.

Since this post, and those that will follow it, depend on an accurate representation of the argument for irreducible complexity (IC), I will take some time to clarify exactly how Michael Behe, the biochemist and Intelligent Design (ID) proponent who has most extensively developed the IC argument, uses the term. For Behe, the argument for IC is a critique of gradual evolutionary processes, of the kind that Darwin saw as necessary for his theory to hold. When Behe introduces and defines IC in his book Darwin’s Black Box, he has a key quote from Darwin on gradualism explicitly in view:

Darwin knew that his theory of gradual evolution by natural selection carried a heavy burden: "If it could be demonstrated that any complex organ existed which could not possibly have been formed by numerous, successive, slight modifications, my theory would absolutely break down."

It is safe to say the most of the scientific skepticism about Darwinism in the past century has centered on this requirement… critics of Darwin have suspected that his criterion of failure had been met. But how can we be confident? What type of biological system could not be formed by “numerous, successive, slight modifications”?

Well, for starters, a system that is irreducibly complex. By irreducibly complex I mean a single system composed of several well-matched, interacting parts that contribute to the basic function, wherein the removal of any one of the parts causes the system to effectively cease functioning. An irreducibly complex system cannot be produced directly (that is, by continuously improving the initial function, which continues to work by the same mechanism) by slight, successive modifications of a precursor system, because any precursor to an irreducibly complex system that is missing a part is by definition nonfunctional. An irreducibly complex biological system, if there is such a thing, would be a powerful challenge to Darwinian evolution. (Darwin’s Black Box, p. 39)

The definition of an IC system is thus straightforward: it is a matched group of components, where all the components are necessary for the function of the system. The necessity of each component can be demonstrated by attempting to remove it – if the system no longer works if even one component is removed, it is by definition IC. Since an IC system requires all the components to be present for its function, it is not possible for the system, in its current state, to have been produced directly from a non-functional precursor. If one grants this premise, it leaves two options: that the IC system was derived indirectly, from a system that is not IC, or that the system was assembled by fiat and thus represents the actions of a designer. Behe’s criterion for distinguishing between these choices is based on evaluating the probabilities of these competing options:

Even if a system is irreducibly complex (and thus cannot have been produced directly), however, one can not definitively rule out the possibility of an indirect, circuitous route. As the complexity of an interacting system increases, though, the likelihood of such an indirect route drops precipitously. And as the number of unexplained, irreducibly complex biological systems increases, our confidence that Darwin's criterion of failure has been met skyrockets toward the maximum that science allows. (Darwin’s Black Box, p. 40)

As we will examine in an upcoming post, Behe attempts to determine the precise limit of what evolutionary processes can (and cannot) achieve in a second book, The Edge of Evolution. For our present purposes, however, it is enough to note that the strength of the argument from IC depends on the perceived implausibility of the opposing explanation – that of an indirect evolutionary route that produces an IC system from a non-IC precursor system.

Building IC, one step at a time?

The presence of IC systems in biology as Behe has defined them is not contentious: there are many biological systems that cease to function when parts are removed. Indeed, the success of classical genetics in “dissecting” which genes are needed for certain functions largely rests on the ability to see some effect on function when a gene is removed from a system by mutation. What scientists dispute, however, is Behe’s claim that identifying IC systems is a hallmark of design. The evolutionary model for building IC is quite simple, and Behe has set it out as an option: an indirect route where non-essential parts are added to a system, and then over time the system comes to depend on those parts. We can diagram this model as follows:

The key to the model is that new parts can be added to a system, and that these parts are not essential when they are added. The resulting system is thus not IC, since it has parts that are not essential to its function, even if the new parts are advantageous in some way. If the new component is taken away at this stage, the system merely reverts to the precursor system. The second part of the model is that these intermediate, non-IC systems then may become IC if small changes make the new parts essential.

The addition of new, non-essential parts can be accomplished in several ways, such as a change in an existing protein that allows it to bind to a “precursor system”. More extreme would be the generation of a new protein that then adds to a precursor system as a non-essential component. Brand new genes, by definition, cannot be essential when they arise, since they arise in an organism that, up to that point, had no need of them. Looking to see if new genes then later become essential would be very good experimental support for the evolutionary model for how IC systems arise.

In practice, it takes a lot of scientific effort to tease out changes to an existing protein that allow it to become part of an intermediate system and then progress to an IC system, though we have examined one such example in a previous post. Looking for brand new genes, however, is much easier – and some recent work in several fruit fly species (Drosophila) has done just that.

The Young and the Restless

So, how to go about finding genes that are new? We have already discussed, in the context of duplicating an entire genome, how duplication of genes may lead to the two copies picking up new functions over time. While duplication may happen rarely at a whole-genome scale, small-scale duplication of small numbers of genes happens quite frequently as an error during cell division. At the time of the duplication, the two copies are the same, and therefore functionally equivalent. Over time, however, the two copies may become different and acquire distinct functions.

One way to look for genes that have arisen due to a recent duplication event is to compare the genomes of closely related species and look for genes that are present in one species but not another, or in a subset of related species. Duplicated genes will show up in a nested hierarchy, much like how pseudogenes appear in the same nested pattern, as we have discussed previously here.

The complete genome sequences for a number of fruit fly species are available, so researchers used this method of comparison to look for new genes that mostly arose “recently” (over the last 35 million years) within flies. Since the speciation times for the various fly species are known to a good approximation, the time of the various duplication events can be estimated as well.

Putting the argument for IC to the test

Using this method, researchers identified 195 recent, “young” genes that arose through duplication events. (Note: this finding, in and of itself, is problematic for the ID argument that significant amounts of new information cannot arise through evolutionary mechanisms). More problematic for the argument from IC, however, is that just less than one third of these new genes are now essential for development in the species that carry them. This fraction is approximately the same for “old” genes – about one third are essential for development.

The implications are easily grasped: many new genes have arisen through duplication, and a sizeable fraction are now part of IC systems. When they arose, they could not have been essential, but now they are emphatically so. As such, they must have been added to previous systems, and become IC over time. Moreover, this effect is not a rare, one-off event, but rather has been repeated time and again in recent evolutionary history.

In the next post in this series, we’ll delve into some of the details about how these new genes arose, and what sort of functions they have.

For further reading:

Behe, M.J. Darwin’s Black Box: the Biochemical Challenge to Evolution. Free Press, New York, 1996.

Behe, M.J. The Edge of Evolution: the Search for the Limits of Darwinism. Free Press, New York, 2007.

Chen, S., Zhang, Y, and Long, M (2010). New genes in Drosophila quickly become essential. Science 330; 1682-1685.

Jennifer Wiseman’s 2009 white-paper explained how a renewed engagement with science can enrich the church’s life of worship. Part 1 of our series taken from that paper discussed stumbling blocks to such a renewal. Part 2 began to describe how the Creation itself reflects the nature of God by displaying his power, creativity, beauty, patience, and faithfulness, all tied up in his character of love. This series concludes by connecting the knowledge of the world we get through scientific investigation with humanity’s Biblical mandate to exercise stewardship of God’s Creation.

Science can inform us of what we need to do, as stewards of God’s Creation.

Humanity faces tremendous moral dilemmas today, and science has relevance to most of them. As followers of Christ, we understand that our lives are entrusted to us for a short time, and that we will give an account for the things we do. So as stewards of our lives, and as disciples entrusted to build God’s Kingdom on Earth, it is essential to have knowledge and wisdom to shape the impact of our lives. Are we polluting the environment by our lifestyles? Clear studies of the relationship of how we live and the environmental impact on others are vital for God’s people. What about service? A well-intended project to provide irrigation or livestock for one needy people group may well end up polluting and destroying an ecosystem downstream.

Scientific understanding can foster wisdom for the best choices of lifestyles and service. And informed Christians can lead the pack in helping “science to inform science” when it comes to difficult ethical dilemmas. For example, farming systems that intensively confine animals may offer a promise from agricultural science of more food production to feed more people. But informed Christians can rightly cry foul, because the sciences of animal behavior and medicine clearly show that such confinement is inhumane and thwarts even minimal natural social and physical needs of animals, and environmental science shows that pollutants from such “factory farms” are devastating. The Biblical mandate for compassion for both people and animals is violated. Thus by combining compassion and prayer with broad scientific understanding, wisdom and clearer discernment will equip the Church for effective discipleship and social leadership.

There may be strong differences of opinion, between equally committed believers, as to the right use of science and technology. Should we genetically modify plants and animals, to provide a more abundant food supply? Should we design sophisticated weapons that can unintentionally destroy innocent lives? Should we use medical technology to prolong life at all costs? Such challenging issues can be an exercise in teaching God’s people how to be informed, how to articulate a viewpoint, and how to weigh respectfully the opinions and concerns of others, without necessarily condemning alternative points of view. In this way the Church can also set an example to the nation and the world of how healthy, respectful dialogue can foster productive progress in addressing difficult public issues. But how important are these issues, if the return of Christ is eminent? This is a realm of theological understanding that can affect whether some churches consider stewardship of technology and environmental protection as an important mandate of God, or even relevant to the future, if in fact there may be no long-term future of the present Earth. This requires careful teaching on the balance between embracing Godly stewardship principles with the intent to bless the world now and for many, many generations to come, while at the same time becoming spiritually ready to join the Lord however soon that may take place.

There is yet another realm of Christian discipleship in science, and that is simply the joy of exploration for its own sake, or rather, as a means of discovering and sharing what God has done. Sharing the wonders of Creation, as scientific discovery reveals them, is a great service to others.

(Earthrise: our beautiful, fragile planet, as seen from lunar orbit. Credit: NASA/Johnson Space Center)

Since I am an astronomer studying distant star-forming regions, and I work for our nation’s space exploration agency, I am sometimes asked by citizens of the public why we should spend any time or money on studies of outer space while there is so much human suffering on Earth: shouldn’t we solve the world’s problems first, before we spend money and effort exploring the oceans or the forests or distant galaxies? I have seen good people get very angry over what can appear to be completely unethical priorities; for instance should we send a probe to study Saturn when we could instead feed hungry children here on Earth? These dilemmas will always be present, and they are not simple. But I believe that God has called us to do BOTH: that is, to serve the poor and the suffering, AND to explore and study his Cosmos. In fact, it is those moments of great discovery and exploration, such as the first moon landing, or the Voyager images of Jupiter’s moons, or the historic first images from the Arctic explorers, that lift the human spirit and give us pause to contemplate the larger context and meaning of our lives. I have found kindred spirits, excited to learn about space, in both the western academic world and amongst the youngsters in impoverished, developing nations. Curiosity and wonder bring us together. We get a Biblical glimpse of this in Genesis, when God asks Adam to name all the animals. The text gives the sense of God’s pleasure as Adam sees the wondrous variety of creatures, and descriptively names each one.

And how should Christians view science and scientists? Since science is a systematic search for truth, and Christians believe that all truth is God’s truth, then there should be true appreciation for these “messengers” who devote their lives to understanding the details of God’s creation and who share their discoveries of scientific truth. Of course as human beings, scientists are sinful and fallible like everyone else. But the portrayal of science and scientists in the church should be a positive one. In fact, historically a great many leading scientists have done their work as explicit service to God (e.g., Blaise Pascal and Johannes Kepler). It should be no different today. Our congregations should encourage young people to go into science, and to see this (and all noble careers) as service to God. Imagine the difference it could make to the whole world if Christians would lead the use of science in a path compelled by love, compassion, and service!

Vox Balaenae, or “Voice of the Whale,” was composed by American composer George Crumb (b. 1929) and was first performed by the New York Camerata in 1971. It was only four years before that, in 1967, that biologists Roger Payne and Scott McVay discovered that humpback whales “sing” and published recordings of the whales’ complex vocalizations, after which “whale song” quickly entered the popular consciousness and helped propel the “save the whales” environmental movement forward. (In 1970, Folk singer Judy Collins even put out a version of the traditional melody "Farewell To Tarwathie" over a background of recorded humpback whale songs.) For many, the fact that the massive creatures might share the human capacity and desire to engage in music as a social activity only made their wholesale destruction at our hands more egregious.

Though he was himself inspired by hearing those early whale song recordings, Crumb’s work does not utilize tapes of real whales or attempt merely to reproduce the effect in the context of an ordinary musical form. Instead, he asks three chamber musicians with modified and electrically amplified instruments (piano, flute and cello) to create sounds that evoke the entire natural history of the sea. The piano is played and strummed from inside the case and with a glass rod or plate on the strings, the cello part emphasizes a string’s abilities to produce high harmonic tones, and the flautist sings into her instrument as she plays. Many of these effects are intended to suggest natural sounds—as in the cello’s "seagull effect" (audible at 5:59 in the video linked blow), and the whale-like beginning cadenza by the flute—but not always in a direct way. In addition, all three players perform wearing half-masks, which, according to Crumb help “effac[e] the sense of human projection,” especially when they play under blue stage lighting as he envisioned. (Most of these features can be seen and heard in this April 2011 performance in Montreal by Philippe Prud'homme, piano; Stephane Tetreault, cello

; and Camille Lambert-Chan, flute, though it omits the blue stage lighting.)

In this multi-sensory impressionistic scene, the whales become representatives of a natural world that predates humanity, yet whose fate is inextricably bound up with the will of mankind. Indeed, the tension between the measured vastness of geologic time and the “Age of Man” is written into the score, as an opening prologue is followed by variations on the initial “Sea Theme” (beginning at 4:20), each named after geologic epochs: Archeozoic, Paleozoic, Mesozoic, and finally, the Cenozoic. It is in this last age—when mankind arrives on the scene—that the sometimes atonal and harsh combinations of sound reach a dissonant climax that the score indicates should be played as “dramatic, with a feeling of imminent destiny” (beginning at 11:26). Finally, the piece moves towards its conclusion with a haunting restatement and renewal of the Sea Theme (at just after 13:00), with the musicians gradually playing more and more quietly until ending with a pantomime, as if creating sounds beyond the limits of human hearing. Again, the sense of resolution in the music is named by Crumb in the score’s instructions to the players: “serene, pure, transfigured.”

So what do we make of this musical narrative and what Crumb seems to be saying about both whales (standing—or swimming—for the natural world) and humankind? Is it truly an anti-human statement, a “whales vs. people” image in response to environmental damage we were only really beginning to understand (via science) at the time the piece was written? There is certainly a skepticism here about human hubris, made explicit at the end of the prologue section by a “parody” of the opening phrase of Strauss’ Thus Spake Zarathustra (at 2:40). Contemporary listeners then and now will likely recognize that borrowed theme as the music from the film 2001: A Space Odyssey (1968), but before that it was a musical homage to Nietzsche’s view of ascendant Man. In this ironic re-use of Strauss’ work, Crumb seems to say that against the span of geologic time and a vast (musical) world previously unknown to human ears, our claims of knowledge and technological mastery seem laughable.

Yet there are several clues that that sort of reading misses the mark, or that it is, at best, incomplete—beginning with the experience of playing and hearing it in person. I first heard Vox Balaenae in about 2002 with my then 6-year-old son. It was played in a small hall (under blue lights) at our local art museum by the Quadrivium Players, a group that included my friend Mary Boodell on the flute. While the masks were surprising at first, they did, indeed, de-emphasize the personality of the players as individuals, while emphasizing the atmospheric, world-creating power of art-forms, especially music.

Rather than a symbolic effacement of the human presence in the world (in keeping with the anti-Nietzschian not above), the effect was to move away from the ritualized performative aspect of modern chamber music and bridge the divide between players and observers, creating a more participatory community. Because of the piece’s distinctive, impressionistic kind of narrativity, one isn’t so much as “carried away by” the music as submerged and suspended in the world created by it, and Boodell describes the effect (especially at the end of the piece) of feeling like the audience is holding it’s breath to hear the silences Crumb has written into the score.

But Boodell also recounts the story of being drawn into the conceptual frame of the piece in a very physical, way when she found herself alone in a swimming pool in the weeks leading up to a performance. Though hesitantly at first, she couldn’t help but wonder how the sounds she made in Vox Balaenae would sound underwater, and so went under in the pool to find out. While the image makes one smile and probably reminds most of us of similar, less technically-proficient underwater experiments of our own, it also suggests how the piece helps hearers make a connection in addition to that between player and listener—that between humanity and the rest of the natural world. If the unexpected flow and soundscape created by Crumb helps audience and players achieve the kind of connection music scholar Jeff Warren has elsewhere on this site discussed as “entrainment,” it is also an invitation to a similarly compassionate state with the rest of creation, based on the new-found knowledge that other creatures have complex, even musical relationships with each other, and that we are privileged to discover and begin to understand them.

Clearly, then, Crumb’s Vox Balaenae touches on scientific knowledge of the world both in its genesis in recordings of whale songs and its structure keyed to geologic, evolutionary ages. But does it have more to say to us here than that we should avoid killing whales because they sing? While we can recognize that the biblical call to have dominion over the earth guides us towards cultivation and care for its creatures and remember that Jesus exemplified such a shepherding role, we should also remember his priestly one, and ours. For just as he remains the High Priest of heaven, holding our prayers in the presence of the Father, we have similar joy in being between heaven and earth, “a little lower than the angels.” Thus we can hold up the great whales (and their songs) as monuments to the depth of God’s creative activity in and through nature—and even revel in our musical, creaturely fellowship with them—without denying the special place of humanity. On the contrary, we affirm that special place when we humble ourselves to listen, seek to understand the native tongues of creation, and then, through Christ, present its songs before the throne of the Almighty Creator and King.

Today's video is courtesy of filmmaker Ryan Pettey, director/editor of Satellite Pictures and features physicist Ard Louis.

In today's video, Oxford physicist Ard Louis discusses the famous debate between renowned evolutionary biologists Stephen Jay Gould and Simon Conway Morris. Gould believed (and wrote in his book Wonderful Life) that if the "tape" of evolution were rerun, the chance that anything like human intelligence would emerge is essentially zero. In other words, humanity is here through random accident. Gould pointed to the work of Morris and fellow scientists in their research of the Burgess Shale as evidence for this view.

However, Morris himself disagrees, pointing to what is called evolutionary convergence. As Morris notes, there are numerous examples of identical features evolving multiple times throughout the history of life independently. Morris believes that if the tape of life were replayed, we would see something like humans emerge. A Christian might say, it looks like we were planned.

Some Christians might find Simon Conway Morris' viewpoint, with its implicit teleology, more attractive. Others, perhaps motivated by a high view of providence, may find Gould's emphasis on contingency equally congenial to their faith. What do you think?

BioLogos has dealt fairly extensively with what we thought was the basic premise of Signature in the Cell. I had read the book carefully and I know Dennis did as well before we responded. I sincerely thought that the heart of Meyer’s argument is summarized in the following three quotes from the book:

1. “So the discovery of the specified digital information in the DNA molecule provides strong grounds for inferring that intelligence played a role in the origin of DNA. Indeed, whenever we find specified information and we know the causal story of how that information arose, we always find that it arose from an intelligent source. It follows that the best, most causally adequate explanation for the origin of the specified, digitally encoded information in DNA is that it too had an intelligent source. Intelligent design best explains the DNA enigma” (p. 347, emphasis added).

2. “Since, as argued in Chapters 8 through 15, intelligence is the only known cause of large amounts of specified information, the presence of such information in the cell points decisively back to the action of a designing intelligence” (p. 382, emphasis added).

3. “Because we know intelligent agents can (and do) produce complex and functionally specified sequences of symbols and arrangements of matter, intelligent agency qualifies as an adequate causal explanation for the origin of this effect. Since, in addition, materialistic theories have proven universally inadequate for explaining the origin of such information, intelligent design now stands as the only entity with the causal power known to produce this feature of living systems.” (p. 386, emphasis added).

So we at BioLogos have always thought that if mainstream science demonstrated an increase in “complex specified information” (CSI) without needing to invoke supernatural intervention, Meyer’s assertion that “intelligence is the only known source of such information in the cell” will have been refuted at the scientific level. It sure seemed to me that this is what he said in the above quotes.

With that in mind, we’ve put a great deal of effort into showing a number of cases in the lab and in nature where scientific data have provided very strong evidence for increased CSI which is entirely consistent with how we scientists would define “natural explanations.” All this time, starting with my first essay almost two years ago, we sincerely thought we were engaging Meyer’s book on Meyer’s terms.

But now, in his PSCF article, Meyer states that arguments based on examples of increased CSI don’t count if they occur after life began on Earth.

“Signature in the Cell argues, first that no purely undirected physical or chemical process—whether those based upon chance, law-like necessity, or the combination of the two—has provided an adequate causal explanation for the ultimate origin of the functionally specified biological information. In making that claim, I specifically stipulate that I am talking about undirected physical and chemical processes, not processes (such as random genetic mutation and natural selection) that commence only once life has begun. Clearly material processes that only commence once life has begun cannot be invoked to explain the origin of information necessary to produce life in the first place) (pp. 173-174, Perspectives on Science and Christian Faith, Sept. 2011, emphasis added).

Since I had read the book very carefully, and have gone over it many times since, I was amazed that I could have missed this stipulation. Again, he says: “I specifically stipulate that I am [not] talking about … processes (such as random genetic mutation and natural selection) that commence only once life has begun.”

Did he really specifically stipulate that? Have we been barking up the wrong tree all this time? While we knew the main focus of Meyer's book was the origin of life (not mechanisms of evolution), his argument clearly stated, we thought, that no large increase in CSI (Complex Specified Information) had ever been demonstrated without the need to invoke intelligence. Period.

I went back through my well-marked up copy of the book again, re-examining each section in which he wrote about increased CSI. Despite my best efforts, I could not find the stipulation he mentions in the PSCF article. Still, thinking I had missed it, I spent $15 for an electronic version of the book—one that would allow me to identify every time the word “mutation,” or natural selection” appeared—anything that would help me find his stipulation. I couldn’t find it.

Actually I thought Meyer was pretty clear and highly specific in his book. Consider this scientific challenge on page 429:

If, for example, someone successfully demonstrated that "large amounts of functionally specified information do arise from purely chemical and physical antecedents," then my design hypothesis, with its strong claim to be the best (clearly superior) explanation of such phenomena, would fail.

Find a case where a large amount of CSI has accumulated without needing to invoke intelligence, and his argument, Meyer said, fails. This is a strong statement, clearly worded, and there is no hint of Meyer’s stipulation that it doesn’t count if life has already begun. In Dennis Venema's BioLogos blog series, he showed many cases where there were large increases in CSI (whole genome duplication, for example) without needing to invoke that supernatural intervention was necessary to create it. Chromosomes, the cell division machinery, and nucleotides are “purely chemical and physical antecedents.” The information content in the genome, Venema showed, quadrupled early in vertebrate history through material processes that we know and understand well. Did this not meet the scientific criteria that Meyer specifically called for?

I don’t know how misunderstandings like this happen. I believe that Stephen Meyer, who I consider to be a friend and colleague, thinks the stipulation exists in his book and that he worded it clearly. I assume he thinks it was implied in some overarching statement that I have not been able to find. I also think he believes he was clear. Unfortunately, clear he was not. I’ve looked thoroughly and I have not been able to find his stipulation.

In post after post, we have set out to demonstrate the scientific case we thought Meyer called for. Then in the end, it sure seems to us, that the rules changed, even though Steve feels they were written in his book all the way along.

Still, let’s move on. Let’s play by the new rule and let’s define it carefully.

So here’s the rule as I now understand it: If large increases in CSI can be demonstrated without the need to invoke an external intelligence, “then [Meyer’s] design hypothesis with its strong claim to be the best (clearly superior) explanation of such phenomena, would fail.”

Having stated the rule, we have to make two exceptions (Meyer himself made Exception #1 clear in Chapter 13; Exception #2 is the new stipulation we've been discussing):

Exception 1. We can’t count large increases in CSI which develop as a result of computer programs because minds designthe program parameters.

Exception 2. We can’t count large increases in CSI which develop in the history of life, because DNA was necessary to set those processes in motion.

So what can we count? Until he clarified the existence of Exception #2, I thought any general increases in CSI would count. However, it is now very hard for me to imagine any increase in information that would not be categorized within either Exception 1 or Exception 2². The only thing left that doesn’t fit into one of these two exceptions is the origin of life itself. The point of the book, I thought, was to bring other examples of increased CSI to bear on this very question.

With Meyer’s exceptions and the inability to bring general CSI increases to bear on the origin of life question, we also no longer have “positive³ experiments [which] provide causal adequacy of intelligent design” (p. 335, emphasis added).

So what are we left with? Are we not simply left with the question of whether the origin of life experiments show that information-rich molecules will arise in a test tube from chemicals off the shelf? Dr. Meyer, I think, says no, for reasons that are no longer clear to me other than that he’s given up on the science. I, on the other hand say, “Wait a while. Let the science play itself out before a scientifically based decision is made.” To be frank though, I am a little concerned that even if the right mix of materials is found to produce molecules that can spontaneously assemble in a manner that gives rise to complex specified information, Dr. Meyer or those who follow him will say, “Sorry, you can’t count that because it took a mind to create the conditions and it took a mind to mix them together in a test tube.” And with that we’ll have a new stipulation which most likely was in some manner implied in Signature in the Cell to begin with.⁴

The interesting thing about this is that Steve Meyer and I are probably really in almost the same exact position when it comes to our core beliefs. Obviously as fellow Christians, we both believe that there is a Mind behind the process. We both think that the history of life with its constant increase in complex specified information is a product of the activity of God. We both stand amazed at the majesty of creation and our love for the Creator who is personally involved not only in our own individual lives but those of our families and faith communities as well. We differ primarily in one regard. Steve thinks he has shown through scientific analysis that this Mind we both believe in must have been present and supernaturally active in the creation of information. I think the Mind (God) was present, but I can’t put the existence of God into a scientific experiment to demonstrate God's activity. Furthermore, unlike Steve, I have no pre-conceived ideas about whether God's,supernatural activity was necessary for creation of information. God, as I see it, may have chosen to create information bearing molecules indirectly through God’s natural activity in a manner that is analogous to the development of a baby or the growth of a tree from a seed.

In the end, our difference is simple, he thinks that the test tubes won’t ever deliver information rich molecules and I think it is too early to say. He has declared the matter more or less settled on the basis of scientific analysis. I consider the matter fully unsettled. But the most important thing of all has been settled and on this we both agree. This Mind we speak of is God’s Mind--God's Holy Spirit. That Spirit not only fills all of creation, but more specifically that Spirit fills us with his Presence and envelopes us in his love. This is cause for celebration and, with "sandals off," we each bow our heads in humble worship. Truly, we--all of us--are standing on holy ground.

Notes

1. Perspectives in Science and Christian Faith 62:276
2. Note to Steve: Does not the human brain count within Exception #2? After all, it arose in the history of life and its development depends upon DNA. If so, you might need an exception to the exception.
3. The term “positive” is used 21 times in the book. It is clearly important to the author that the evidence for intelligence associated with the origin of DNA be viewed not as absence of contrary evidence, but rather a piece of convincingly positive evidence that hinges upon the fact that CSI in general, can’t be built without a mind.
4. I’m really not trying to be facetious here. I really do think that’s what would happen. I can almost draft the stipulation now.

Early years

I grew up in northern British Columbia, Canada, in a small town called Terrace, where I spent a lot of time in the woods with my father and brother hunting and fishing. Little did I know how spoiled we were –Terrace and its environs are a world-class destination for outdoor pursuits, especially fishing. As a hunter, my father was always interested in patterns in nature: what animals fed on, where they moved at certain times, and so on. Even as a child I can remember being similarly interested in how nature worked. Often, while dad fished, I was the one brandishing a net, bucket at the ready, to see what critters I could scoop up and examine. While my peers at school wanted to be astronauts and firemen, I dreamed of being a scientist some day.

My local church setting was pretty much a wash when it came to science. Science was not held up as a potential vocation, but neither was it denigrated as suspect. Creation science did not seem to be a priority, but rather global missions. As such, science–faith issues were seldom, if ever, discussed in the church I grew up in. I can vaguely recall one dust-up over eschatology, which was perhaps the first time I realized that not all Christians agree on everything when it comes to interpreting the Bible. I cannot, however, recall any similar discussion about the means by which God created.

High school

Despite evolution being almost a complete non-issue in my local church, I seemed to acquire a generic, evangelical, anti-evolutionary position by default. Certainly I knew of no Christians who accepted it, and I can still recall the feeling of dread I would get even at hearing the word evolution spoken aloud. That word, in my mind, was effectively synonymous with atheism. Fortunately, even in high school biology class evolution seemed to be a complete non-issue too, for as far as I can recall evolution was not a subject I was exposed to in high school. In fact, in high school I found biology to be intensely boring – it seemed to me to be mere regurgitation of information. Chemistry and physics seemed much more interesting, and I suspect now the reason for the appeal they held for me then was that they were taught from their underlying principles: atomic theory, Newtonian mechanics and Einstein’s theories of special and general relativity. What was missing was the theoretical underpinnings of biology: a way to organize the laundry list of information into a context. It would be a long time before I realized that evolution was the theoretical underpinning that was missing from my biology experience. Given my dread of the topic, had this been pressed on me in high school I may have never pursued a career in biology.

As a high school student I had left behind my childhood desire to be a scientist. After all, I knew no scientists, and had no notion of how one might become one. In my small-town, northern Canadian setting, a medical doctor was about as close as one came to a scientific career that I was aware of. Accordingly, I set my sights on medicine, and off I went to the University of British Columbia in the fall of 1992. Biology seemed a natural choice for an aspiring doctor, so that was what I chose.

One church incident that I do recall with great clarity happened just before I left for university. There were several recent grads in the congregation: some were headed to Bible College, and others, such as myself, were off to “secular” universities. Our congregation had a time of prayer for all of us, but the contrast was stark: prayers of thanksgiving and blessing for those bible-school bound, but for those of us heading into the lion’s den, prayers of supplication that we not lose our faith in the process. I can remember steeling myself for the upcoming battle, where professors tried to snare me with their atheistic teachings and peers likewise pressured me to give up my faith. One battle I knew was coming was the evolution one: certainly, as a biology student, this would be one of the challenges I would have to face.

University 101

To my delight, I found that university was not going to require me to hold my breath spiritually for four years. Soon I was involved with Inter-Varsity Christian Fellowship and enjoying the friendship of many other Christian students. Biology, however, remained boring and laundry-list like. My grades in chemistry and physics were still higher than those within my declared major of biology. The one bright spot was that evolution barely seemed to rate a mention except in passing. Certainly no compelling evidence for evolution was ever mentioned – professors seemed too intent on teaching the details of their fields to provide a wider evolutionary context. Even the introductory survey courses seemed more intent on a mere description of biodiversity rather than any detailed understanding of how that diversity arose. I did note that there was a 400-level evolution course, but thankfully it was an optional elective. Avoiding the evolution issue was easier than I had thought: I simply skipped taking that elective.

At the start of my third year, with my grades still marginal for medical school, I somehow decided to upgrade into a biology “honors” student. This meant two things: working on an undergraduate research thesis with a faculty member, and attending an “honors seminar” class with other students in the same program.

Experiencing my first taste of research was electrifying: here at last was genuine science! Not long after, my upper-level classes seemed a lot more interesting and relevant, and also much easier. My grades improved dramatically, and medical school looked to be a live option once more – except for the fact that my childhood interest in science had blossomed again.

Standing against evolution

The undergraduate thesis seminar class included an assignment that required students to familiarize themselves with the research of one of the professors in the department. As the list of potential faculty and their research interests was read, one caught my attention: the work of Dolph Schluter on experimental evolution. I decided to take the opportunity to score a few hits on the so-called “theory” by signing up for this topic. What followed can only be described now as a painful memory: full of ignorance and confidence, I trotted out every long-refuted, anti-evolutionary argument in the book (in fact, if memory serves, my “research” was nothing beyond skimming one anti-evolutionary book for its arguments). I remember that the class was quite engaged by the presentation, and there was some vigorous back-and-forth with some of the students who knew the science better than I because of their research work. I can only imagine what the thesis class faculty supervisor was thinking at the time. The worst part was that Dolph himself arrived early for his own presentation to the class, which was to follow my own. As such, he was able to hear a good portion of my nonsense.

Fortunately for me, Dolph had no interest in what would have been a very easy dressing-down. Rather, he restrained himself to a few words to the rest of the class on their lack of knowledge. Personally, I thought I had scored a victory for the faith, against the evils of evolution.

In the next post in this series, I’ll describe my introduction to, and enthusiastic embrace of, the Intelligent Design Movement.

Though some may believe that moving the science/faith dialogue forward is best left to scientists, scholars, and theologians, we at BioLogos recognize that our pastors play an invaluable role in the conversation. Across the globe, pastors are helping their congregations work through difficult issues of science and faith with honesty, insight, and a gentle spirit. To this end we present an ongoing series recognizing sermons (and the pastors who give them) that are helping to promote the harmony of science and faith. Today's sermon comes from Rev. Tim Keller, pastor of Redeemer Presbyterian Church. Click above to hear an excerpt. Below, is a brief summary written by BioLogos editorial staff. The full sermon, which we highly recommend can be purchased from Redeemer’s sermon store. Finally, if you know a sermon or podcast related to science and faith that has especially spoken to you, please let us know.

Genesis 2:2-17 places an interesting emphasis on work—not only does God work to bring about all creation, but also, man is called to the task of caring for God’s world. Dr. Keller believes this passage provides an important assumption, a purposeful direction, a resulting burden, and a necessary provision concerning the work.

First, because God is described as working, one can conclude that work reflects a significant aspect of God’s character. Therefore, when humans perform various tasks, they are reflecting the image of God. If working does indeed reflect his image, Dr. Keller states, then there is an intrinsic dignity to manual labor no matter what the occupation. This concept reveals the goodness of ordinary life. Whether simply gardening to produce food or cleaning a space to produce order, people are meant to rejoice in the responsibilities that daily life brings.

Then, Dr. Keller explains that the duty of humankind to care for God’s garden reveals the aim of all work. In order to garden properly, one must meddle with the natural state of things to bring about fruitfulness and prosperity. This may include clearing the ground to expose it to sunlight or trimming back plants to stimulate growth. The gardener cannot simply standby like a “park ranger” and let things freely develop—he or she must creatively order the garden in such a way that all plants thrive. In the same way, all work involves, as Dr. Keller puts it, “rearranging the raw material of a particular domain [in order] to draw out its potential for the flourishing of everyone.” He strengthens his point by applying this definition to the work of writing music. Music, he says, is created when the raw material of sound is structured in such a way that it brings meaning to human life. Overall, God has given all people the ability to express creative energy in the service of others, and that is the intended goal of work.

Next, the Genesis text reveals the burden of work. When the curse of the Fall came upon Adam and Eve, death entered the world. According to Dr. Keller, this is more than just a physical death that came to humanity. He compares the human condition to the second law of thermodynamics (which states that the universe is becoming more disordered) in order to demonstrate that people are falling apart physically, culturally, spiritually, vocationally, etc. People are constantly caught in the tension between their efforts to accomplish tasks and the unstoppable force of death that causes all things to degrade. Furthermore, he says that one can neither have a cynical view nor a romantic view of work. A person must recognize the goodness of work, yet keep in mind that it is still difficult and laborious. Although each person has a specific vocation through which to serve the world, he or she cannot always fulfill this calling because he or she must work to survive as well. This is the very heart of the frustration and burden of humanity’s calling to work in this fallen world.

Finally, in the midst of this struggle and tension, God has given humans this provision: rest. Genesis 2:3(NASB) puts forth the statement that, “…God blessed the seventh day and sanctified it, because in it He rested from all His work which God had created and made.” The Bible shows that this rest has been given as a free gift to all people, and it is not a provision that needs to be earned. According to Dr. Keller, this gift is the rest of peace and the rest of hope. It is the rest of peace because Christ has offered his love that assures believers in their significance. People no longer have to bear the burden that somehow their performance in their job or career determines their value as a human being. Likewise, it is the rest of hope because believers will one day have the ability to realize their dreams—an invention, a painting, a novel—when God makes the new heavens and the new earth. Therefore, a Christian need not be dismayed by the broken dreams in their heart during this lifetime, for one day, those things too will be accomplished. Now, through Jesus Christ, all can enter into the deep peace that their soul so desires and find true rest in work.

ADDENDUM: Please note, although we do invite your comments as we explore the theological richness of God's word in the sermon series, the comments will be restricted to Christians who are genuinely seeking to enter into a deeper and more meaningful relationship with God. Those who are not Christians but are seriously seeking to explore the Christian faith as a possibility for their own lives are also very welcome to raise questions and make comments. However, this will not be a place to belittle Christianity. We ask that our atheist friends respect our purpose here. We realize that you think Christianity is irrational and we are willing to engage the profound rationality of our faith, but this is not the place to discuss that with you.