This month's Carnival of Evolution (35th version) is hosted by Lab Rat at Lab Rat [The Carnival is here!]. ("Lab Rat" isn't really a rat. She's a biochemistry undergraduate who works on bacteria.)
The National Center for Science Education (NCSE) is promoting a position statement on evolution issued by the National Association of Geoscience Teachers (NAGT) [Geoscience teachers add their voice for evolution]. Apparently NCSE thinks this statement is good enough to include on their website and and publish in the next edition of Voices for Evolution. The statement can be found on the NAGT website: Position Statement - Teaching Evolution. It was published in 2006. I'm reproducing it below in order to get your opinion. The National Association of Geoscience Teachers (NAGT) recognizes that the scientific theory of evolution is a foundational concept of science, and therefore must also be a cornerstone of science education. Evolution in the broadest sense refers to any change over time. The study of Earth's evolution provides society with the time and space perspectives necessary to understand how Earth's physical and biological processes developed, provides insight into the natural processes active on Earth, and shapes our view of Earth's future.
Evolutionary studies apply to most branches of science, including organic evolution, cosmic evolution, geologic evolution, planetary evolution, and cultural evolution. Each of these subdisciplines of science provides evidence that evolution is pervasive: galaxies have changed, stars and planets have changed, Earth has changed, life forms on Earth have changed, and human culture has changed. Evolution is therefore factual and is a unifying concept of the natural sciences. For this reason, the National Science Education Standards (NRC), Benchmarks for Science Literacy (AAAS), numerous national education policy documents, and individual states, through their published science education frameworks, all recognize that evolution is a unifying concept for science disciplines and provides students with the foundation to help them understand the natural world. NAGT fully agrees with and supports the scientific validity of evolution as reflected in the position statements of the numerous scientific societies that unanimously support evolution on scientific grounds. NAGT further maintains that the scientific theory of evolution should be taught to students of all grade levels as a unifying concept without distraction of non-scientific or anti-scientific influence.
Published and reaffirmed position statements on the scientific validity of evolution by all of the scientific societies clearly demonstrate that the modern scientific community no longer debates whether evolution has occurred. Scientific investigation of the mechanisms of evolution and the interconnected "details" of mechanism, process, history, and outcome remain at the current scientific forefront of evolutionary studies. This is the nature of scientific inquiry itself: to continually evaluate scientific theories with an eye towards improving our scientific models and adding more details to our understanding of the natural world. Scientists often disagree about explanations of how evolution works, the importance of specific evolutionary processes, or the patterns that are observed, but all agree that evolution has occurred and is occurring now. Global change will be the future projection of past and ongoing evolutionary processes. While evolution is factual, evolution is also a "scientific theory", which is an explanation for the observed changes. This usage of theory should not be confused with the non-scientific usage of theory as an ad-hoc idea unsupported by testing or evidence.
In science, disagreements are subject to rules of scientific evaluation, and this includes the methodologies of teaching scientific concepts. Scientific conclusions are tested by experiment, observation, and evaluation. Sound practices of scientific education are tested and evaluated much the same way. NAGT recognizes that invoking non-naturalistic or supernatural events or beings, often guised as "creation science," "scientific creationism," or "intelligent design theory," are not scientific in character, do not conform to the scientific usage of the word theory, and should not be part of valid science curricula.
As stated in NAGT's Constitution, the purpose of the NAGT is to foster improvements in the teaching of the earth sciences at all levels of formal and informal instruction, to emphasize the relevance and cultural significance of the earth sciences, and to disseminate knowledge in this field to educators and the general public. The NAGT fully accepts its role in the evaluation and betterment of the teaching of scientific evolution in formal and informal educational settings, with the explicit goal of helping everyone to understand the scientific merit this fundamental concept has in modern science. The Journal of Geoscience Education publishes papers related to research concerning the pedagogy, assessment, history, philosophy and culture of teaching and learning about the geosciences, especially of fundamental concepts like geologic time and faunal and stratigraphic succession, all aspects of evolution.
TO ALL TO WHOM THESE PRESENTS SHALL COME:This is going to put God in a really difficult position. He's right in the middle of punishing Texas for being so stupid in the past few decades and now the Texans are pleading for relief from that punishment. It may be hopeless. After all, the Egyptians didn't get spared when they prayed to their gods to stop another god from killing all their firstborn sons.
WHEREAS, the state of Texas is in the midst of an exceptional drought, with some parts of the state receiving no significant rainfall for almost three months, matching rainfall deficit records dating back to the 1930s; and
WHEREAS, a combination of higher than normal temperatures, low precipitation and low relative humidity has caused an extreme fire danger over most of the State, sparking more than 8,000 wildfires which have cost several lives, engulfed more than 1.8 million acres of land and destroyed almost 400 homes, causing me to issue an ongoing disaster declaration since December of last year; and
WHEREAS, these dire conditions have caused agricultural crops to fail, lake and reservoir levels to fall and cattle and livestock to struggle under intense stress, imposing a tremendous financial and emotional toll on our land and our people; and
WHEREAS, throughout our history, both as a state and as individuals, Texans have been strengthened, assured and lifted up through prayer; it seems right and fitting that the people of Texas should join together in prayer to humbly seek an end to this devastating drought and these dangerous wildfires;
NOW, THEREFORE, I, RICK PERRY, Governor of Texas, under the authority vested in me by the Constitution and Statutes of the State of Texas, do hereby proclaim the three-day period from Friday, April 22, 2011, to Sunday, April 24, 2011, as Days of Prayer for Rain in the State of Texas. I urge Texans of all faiths and traditions to offer prayers on that day for the healing of our land, the rebuilding of our communities and the restoration of our normal way of life.
IN TESTIMONY WHEREOF, I have hereunto signed my name and have officially caused the Seal of State to be affixed at my Office in the City of Austin, Texas, this the 21st day of April, 2011.
RICK PERRY
Governor of Texas
[Office of the Governor]
A large part of the AAAS document, Vision and Change in Undergraduate Biology Education is devoted to how to teach science. The "core concepts" take up only 2 pages out of 79 pages in the booklet.Although the definition of student-centered learning may vary from professor to professor, faculty generally agree that student-centered classrooms tend to be interactive, inquiry driven, cooperative, collaborative, and relevant. Three critical components are consistent throughout the literature, providing guidelines that faculty can apply when developing a course. Student centered courses and curricula take into account student knowledge and experiences at the start of a course and articulate clear learning outcomes in shaping instructional design. Then they provide opportunities for students to examine and discuss their understanding of the concepts presented, offering frequent and varied feedback as part of the learning process. As a result, student-centered science classrooms and assignments typically involve high levels of student–student and student–faculty interaction; connect the course subject matter to topics students find relevant; minimize didactic presentations; reflect diverse aspects of scientific inquiry, including data interpretation, argumentation, and peer review; provide ongoing feedback to both the student and professor about the student’s learning progress; and explicitly address learning how to learn.This is a very good idea in theory but putting it into practice is much harder than it looks. I've seen some excellent examples of student-centered learning at various conferences over the past few years. One type of student-centered learning seems particularly attractive to me and I've tried it several times in my courses. Here's how it's described in the Vision and Change document (p. 26).
Typically, these strategies engage students more actively in every aspect of their learning and are interactive, inquiry driven, cooperative, and collaborative, allowing students to engage with each other and with faculty. For example, the “problem–based model of instruction,” or learning cycle (Bybee, 1997; Fuller, 2002), revolves around a series of related questions that first probe what students know about a topic and then move to unfamiliar, new ground, enabling the students to develop a more complete and accurate understanding of the topic. Faculty initiate student interactions with key guiding questions and opportunities for discussion, present a short explanation of the necessary background knowledge, and then have students work together on questions to deepen their understanding through reflection on and application of their knowledge (e.g., Ebert-May et al., 1997). This approach incorporates frequent informal assessment (e.g., Angelo and Cross, 1992) to address misconceptions and provides a balance between direct instruction and student interaction. One or two class sessions using this approach to introduce a topic such as evolution might unfold in the following way (e.g., Ebert-May et al., 2008):The idea here is to confront misconceptions by having students come up with their own ideas about answering the "engagement question." This gives the instructor the opportunity to correct the most common misconceptions. In this example, the students will almost certainly come up with a definition of evolution that requires natural selection and excludes random genetic drift. They will frequently include mutation and recombination as part of their definition. Most of the time students will demonstrate lack of knowledge of population genetics.
- Engagement Question: For example, “What is evolution?” This background question probes student knowledge of the topic.
- Exploration: Students share their answers with other students sitting nearby and come to a consensus; volunteers from the groups share their answer with the class, allowing the instructor to listen for misconceptions and depth of understanding.
- Explanation: The instructor presents a short interactive lecture (15 minutes) on the topic, providing explanations to help clarify student thinking based on identified misconceptions.
- Extension Question: Students work together on a more advanced question that might, for example, call for them to analyze information, formulate critical questions and hypotheses, evaluate and criticize evidence, or propose alternative solutions. In the example of evolution, the extension question, tied to a learning goal, might be What mechanisms are involved in natural selection, and what role does natural selection play in antibiotic resistance in bacteria today? Again, groups are called on to explain their answers and how they came to them.
- Quiz Question: The final assessment (which may or may not be formally graded) allows both the student and the instructor to chart the effectiveness of teaching and learning.
If evolution is defined as a change in the frequency of alleles in a population and if fixation of alleles can occur by several different mechanisms, then what is the most common mechanism of evolution according to the data we have?I think the three most important criteria in science education are (1) accuracy, (2) accuracy, and (3) accuracy. Everything else is of lesser importance, including how you teach the concept. Thus, you may be an expert at student-centered learning but if you don't understand evolution then the exercise is completely ineffective no matter how much the students may enjoy it.
The AAAS document, Vision and Change in Undergraduate Biology Education, defines five core concepts for biological literacy. One of the core concepts is Pathways and Transformations of Energy and Matter. This is an important one for biochemistry since we are the people charged with making sure undergraduates understand the basic core concept that life obeys the laws of physics and chemistry.4. PATHWAYS AND TRANSFORMATIONS OF ENERGY AND MATTER:At first glance this seems like an adequate description of a core concept but the more you think about it the more you realize that it's just a bunch of motherhood statements without any real teeth. It sounds very nice to say that students need to understand kinetics and thermodynamics but the recommendation has no substance unless you explain exactly what it is that they are supposed to understand. We all know that both these concepts are poorly taught in undergraduate courses.
Biological systems grow and change by processes based upon chemical transformation pathways and are governed by the laws of thermodynamics.
The principles of thermodynamics govern the dynamic functions of living systems from the smallest to the largest scale, beginning at the molecular level and progressing to the level of the cell, the organism, and the ecosystem. An understanding of kinetics and the energy requirements of maintaining a dynamic steady state is needed to understand how living systems operate, how they maintain orderly structure and function, and how the laws of physics and chemistry underlie such processes as metabolic pathways, membrane dynamics, homeostasis, and nutrient cycling in ecosystems. Moreover, modeling processes such as regulation or signal transduction requires an understanding of mathematical principles.
For example, knowledge of chemical principles can help inform the production of microorganisms that can synthesize useful products or remediate chemical spills, as well as the bioengineering of plants that produce industrially important compounds in an ecologically benign manner. These are topics of intense current interest.
There are species that are autotrophs. They grow and reproduce using only inorganic molecules as their only source of essential elements. Carbon usually comes from CO2. Some of these species are capable of photosynthesis (photoautotrophs) but others are not (chemoautotrophs). Where do chemoautotrophs get the energy to grow and reproduce if they can't carry out photosynthesis and they don't require organic molecules as food sources?Let's look at the AAAS Project 2061 Science Assessment Website to see how they treat the topic of Matter and Energy in Living Systems. This site is for high school biology but it's the only place I know where we can assess what AAAS thinks is important in basic concepts. Students are expected to know that...
All organisms need food as a source of molecules that provide chemical energy and building materials.Oh dear. If this is an example of core concepts then we need to add one more item; namely "7. According to item #3, chemoautotrophs are not organisms."
- Food consists of carbon-containing molecules in which carbon atoms are linked to other carbon atoms.
- Carbon-containing molecules serve as the building materials that all organisms (including plants and animals) use for growth, repair, and replacement of body parts (such as leaves, stems, roots, bones, skin, muscles, and the cells that make up these structures) and provide the chemical energy needed to carry out life functions.
- If substances do not provide both chemical energy and building material, then they are not food for an organism.
- Chemical energy from carbon-containing molecules is the only form of energy that organisms can use for carrying out life functions.
- Carbohydrates (including simple sugars and starch), fats, and proteins are molecules that are food.
- Light is not food because it is not made of atoms and therefore cannot provide building material, and even though substances such as water, carbon dioxide, oxygen, and various minerals provide atoms for building materials for some types of organisms, they are not food because they do not contain carbon atoms that are linked to other carbon atoms and cannot be used as a source of chemical energy.
Plants make their own food in the form of sugar molecules from carbon dioxide molecules and water molecules. In the process of making sugar molecules, oxygen molecules are produced as well.Here's the core concept as I teach it. I'd appreciate feedback on which way is better.
- Unlike animals, plants do not take in food from their environment.
- Plants make their own food in the form of sugar molecules by means of a chemical reaction between carbon dioxide molecules and water molecules. Oxygen molecules are also a product of this reaction.
- The process of making sugar molecules involves linking together carbon atoms that come from molecules of carbon dioxide.
- The chemical reactions by which sugars are made takes place inside the plants. In most familiar land plants, the carbon dioxide molecules that are used come from the air that enters the plant primarily through its leaves, and that the water molecules that are used in the reaction enter the plant through its roots.
Photosynthetic organisms, such as bacteria, algae, and plants, can use light as a source of energy. They convert this energy into chemical energy in the form of ATP and other cofactors. These "high energy" molecules are used to provide energy in biosynthesis reactions that make all of the important molecules in the cell including amino acids, proteins, nucleotides, nucleic acids, fatty acids, lipids & membranes, carbohydrates, and polysaccharides.Note that point #2 above is absolutely wrong. Oxygen is NOT produced as a result of a reaction between CO2 and H2O. That is a major misconception. The oxygen given off by some photosynthetic species is derived directly from water as part of the photosynthetic electron transfer reactions. Some photosynthetic species don't produce oxygen yet they are perfectly capable of synthesizing nucleic acids, proteins, lipids, and carbohydrates. How do they do it? You need to understand the answer to that question if you are going to understand how eukaryotic photosynthesis evolved.
As I noted yesterday, the AAAS document, Vision and Change in Undergraduate Biology Education, defines five core concepts for biological literacy [Core Concepts: Evolution]. Evolution is the first core concept and this is a very good thing. Congratulations to the committee for a wise choice.The AAAS document, Vision and Change in Undergraduate Biology Education, defines five core concepts for biological literacy. Evolution is at the top of the list, right where it belongs.1. EVOLUTION:I would have written a different description—one that placed emphasis on Darwin's contribution but did not imply that his views represent modern evolutionary theory. I would also have mentioned genetics, especially population genetics, as the key to understanding modern evolution.
The diversity of life evolved over time by processes of mutation, selection, and genetic change. Darwin’s theory of evolution by natural selection was transformational in scientists’ understanding of the patterns, processes, and relationships that characterize the diversity of life. Because the theory is the fundamental organizing principle over the entire range of biological phenomena, it is difficult to imagine teaching biology of any kind without introducing Darwin’s profound ideas. Inheritance, change, and adaptation are recurring themes supported by evidence drawn from molecular genetics, developmental biology, biochemistry, zoology, agronomy, botany, systematics, ecology, and paleontology. A strong preparation in the theory of evolution remains essential to understanding biological systems at all levels.
Themes of adaptation and genetic variation provide rich opportunities for students to work with relevant data and practice quantitative analysis and dynamic modeling. Principles of evolution help promote an understanding of natural selection and genetic drift and their contribution to the diversity and history of life on Earth. These principles enable students to understand such processes as a microbial population’s ability to develop drug resistance and the relevance of artificial selection in generating the diversity of domesticated animals and food plants.
The American Association for the Advancement of Science (AAAS) has published a document called Vision and Change in Undergraduate Biology Education. Over the next few days I'm going to introduce the main recommendations and hopefully stimulate some discussion.... the future of science education ... depends on what college professors do in their teaching much more than I would ever have expected ...
1. Bruce was my Ph.D. supervisor.
In the course of your talk you asserted that there was no evidence to support miracles, thereby implying that a belief in miracles was a superstitious belief. During the question period I suggested that it might be a good thing if we could concede that our philosophical opponents have a plausible case, notwithstanding the fact that we're bound to believe the case for our own position is stronger. Such a concession would imply that arguments and evidence require interpretation, and that the weight one gives to an argument or piece of evidence may legitimately vary according to a wide range of factors such as temperament, upbringing, what we already believe, what we would like to believe, etc., etc. Insisting, however, that the contest between naturalism and supernaturalism is nothing more than a contest between cold white truth and stark unreason, while it may simplify one's argument, immensely complicates the problem of human communication. The tendency will be to talk about the opposition rather than to the opposition--after all, what's the point of talking to self-deluding fools. Their arguments are only going to irritate.
At the risk of irritating, I will quickly present the case for miracles as a theist might make it:
Hume famously remarked, "A miracle is a violation of the laws of Nature; and as a firm and unalterable experience has established those laws, the proof against a miracle, from the very nature of the fact, is as entire as any argument from experience can be." But we only know that the "experience" against miracles is "firm and unalterable" if we already know that all reports of miracles are false. And we only know that all reports of miracles are false if we already know that miracles never occur. Both naturalists and supernaturalists accept that it is a logical fallacy to argue in a circle, that you must not assume in your argument what your argument purports to show.
Moreover, the theist claims that so far from the case against miracles resting on "firm and unalterable experience," there is a vast amount of unimpeachable evidence in favour of miracles. The question, as John Stuart Mill rightly said, "can only be stated fairly as depending on a balance of evidence: a certain amount of positive evidence in favour of miracles, and a negative presumption from the general course of human experience against them."
Now if it were purely a question of volume of evidence, then the volume is overwhelming. Every century, every race, every culture, every kind of person has contributed to the ocean of testimony bearing witness to the possibility of interference with nature by supernatural power--in other words, we have a situation here that is very different from that of mere logical possibility, like Russell's orbiting teapot. If the explanation of this evidence be in dispute, the naturalist has to provide a series of ad hoc explanations. He explains one incident by hallucination, another by fraud, a third by faulty observation, a fourth by forged documents, a fifth by inaccurate diagnosis and so on. The supernaturalist advances one explanation which covers all the alleged facts. He claims that the supernatural exists and that supernatural beings intervene from time to time in the natural order. He cuts through a tangle of assorted explanations with the sharp edge of Occam's razor: "Explanations must not be multiplied without a reason."
Dr. Jacalyn Duffin, as you may know, is a hematologist and an atheist. Some 20 years ago she was asked to provide expert testimony--she analyzed blood samples from a leukemia patient--that was used to advance the canonization of Canada's first saint, Marie-Marguerite d'Youville. She says the Vatican's forensic work in establishing miracles is rigorous. Duffin is also a Queen's University professor and author of the 2009 book "Medical Miracles: Doctors, Saints and Healing in the Modern World." It was only after the research for her book, which chronicles her investigation into 1,400 supposed miracles, that she concluded that there are things that happen--cures, for instance--that cannot be explained scientifically. Her view differs from the Vatican's in one important area: "I disagree, because I am an atheist, that God did it." Scientists believe there must always be an explanation, she adds. "Even if we don't have an explanation, we're confident it must exist. That is a belief--it is like religion."
Dr. Duffin admits that her rejection of miracles is based on the fourth definition of faith (in my desktop dictionary): "a strongly held belief or theory." Her belief, which she says is "like religion," is that all phenomena are material in origin, and therefore any alleged miracle has a naturalistic explanation, irrespective of whether science can discover it or not. I think that position is honest and unassailable. Note, however, how her position differs from that of Hume, who tells his readers that they needn't worry their minds about any evidence for miracles because he can give them general reasons why they should reject ALL evidence in favour of miracles IN ADVANCE. Not only are there obvious philosophical objections to Hume's attitude, but it is sharply at odds with the scientific method as famously laid down by Francis Bacon. That method requires theory to emerge from the evidence, unguided by preconceived notions--especially metaphysical notions.
It seems to me that all of Hume's arguments only carry weight if you are a convinced naturalist to begin with--usually for reasons that have nothing to do with miracles, such as the conviction that no omnipotent, benevolent Being would create the sort of world that we live in. In other words, Hume's whole argument is underwritten by the sceptic's answer (solution?) to the problem of evil. Fair enough. The problem of evil has always been the main reason given by philosophers and non-philosophers alike for why they can't believe in a personal God. Though not a disproof of supernaturalism, the fact of evil (and tragedy) will always be a powerful suasion for naturalism.
Obviously, not everybody who prays for miraculous healing can expect to be healed. If everybody who prayed was healed then miracles would be accepted as one of the stranger facts of life--such as the evolution of the first cell from inanimate matter. Everybody would believe because everyone would know someone whose prayer had been answered--in many cases their own. If, on the other hand, miracles were exceedingly rare, then they would lose their evidential value even for supernaturalists. The Gospels make it clear that miracles were meant to have evidential value. Here's my favourite passage, but there are a number of others: "Now John had heard in his prison of Christ's doings, and he sent two of his disciples to him; Is it your coming that was foretold, he asked, or are we yet waiting for some other? Jesus answered them, Go and tell John what your own ears and eyes have witnessed; how the blind see, and the lame walk, how the lepers are made clean, and the deaf hear, how the dead are raised to life, and the poor have the gospel preached to them. Blessed is the man who does not lose confidence in me." (Matt 11: 2-6) There are also Gospel passages to indicate that Jesus did not claim a monopoly on healing, and that miracles could be expected in the future.
To me, the incidence of miracles seems just about right--except, of course, when one could use a miracle oneself. But the naturalist is bound to think otherwise. An interesting example is Emile Zola, self-proclaimed father of French naturalism (in literature). He wrote a novel, entitled "Lourdes", during the research for which he had a chance to meet Marie Lebranchu (Miracle #16, 1892) at the Medical Bureau of Verifications. In his novel he altered the facts. Having depicted Marie Lebranchu as a hopelessly ill person, using the name of La Grivotte, he made her die on the train home! Yet, she lived in perfect health until 1920. Zola, unable to explain the cure at Lourdes which he had investigated, stated, "I do not believe in miracles: even if all the sick in Lourdes were cured in one instant I would not believe in them." Interestingly however, after witnessing several healings he no longer dismissed the evidence: "No, I do not, or, better, I cannot believe in the Lourdes miracles. What I have seen is amazing, grandiose and moving to the utmost degree, but ultimately explainable by the natural laws."
Interesting too is Jacalyn Duffin's response at the end of an interview on CBC's "The Current" (Oct 15/10 - Pt 1: Brother Andre; 13:50 minutes in). The interviewerconcludes by saying, "It does shake your faith as an atheist, I'm guessing?"
"Oh yes it does. And it makes me very happy."
She's not contemptuous of miraculous healings, whatever the explanation, and I'm betting that she's not contemptuous of those who believe their cause is supernatural--despite the fact she remains a naturalist.
http://www.cbc.ca/thecurrent/2010/10/oct-1510---pt-1-brother-andre.html
I realize that anybody who wants to remain a naturalist must steadfastly resist the idea that "miracles" ever have a supernatural cause, however impressive the evidence. I respect that attitude, and think it can be justified by one's personal response to the problem of evil, by the fact that we don't know everything about nature, and by the fact that many strange things happen. But the conviction that miracles don't happen is not one that is rationally binding on everyone.
I post this for entertainment purposes only.What do you see as the timeline for Darwinism to be replaced by a more inclusive theory of evolution? If ever. And if not, why not?Today she announced the winning IDiot, it's someone named "Bantay at 10" (What in the world were its parent thinking when it was born?)
5 years –
Significant scientific discoveries will enhance a relatively new scientific paradigm we know today as “ID” – As additional discoveries buttress a design framework from which new scientific discoveries can be predicted, we will see more scientists and materialists distance themselves from Darwinism (like Marulis and Fodor).
10 Years –
Significant numbers of academicians from biologists to astronomers, philosophers to office secretaries, will be talking about a design framework for the future of their scientific fields in a professional setting, without fear of legal reprisals.
20 years –
Someone will win a landmark legal case that will have a result of ID being shown to be good science, not religion. Scientists who are on the anti-ID side will be expelled from their jobs, suffer public embarrassment for their fearmongering (Barbara?) and will be regretting that they didn’t break ranks while the going was good. Also in 10 years, a movie will be made about the Dover trial and there will be renewed controversy when the credits roll “ACLU Document”
40 Years –
More than 50% of the Big Academy will be non-materialists and agnostics, with atheism showing a steady decline from it’s already lowly numbers to an even lesser significance. The beginnings of post-Darwinist history revisionism will rear its ugly head, with surviving Darwinist hold-outs fighting amongst themselves over who claimed what fossil was a precursor to man (but strangely will forget that none of them were).
60 Years – Darwinism will be relegated to a small, obscure paragraph in science text books, probably as a footnote. All of today’s living fundamentalist Darwinists will be dead, their Machiavellianism and unscientific fearmongering and back-pats a thing of the past. Meanwhile, the exciting world of science will be renewed with advances in technology that will enable scientists to reverse engineer the parts in the cell itself, helping to elucidate secrets of its design previously unknown. On the global design front, advances in technology will reveal orders of magnitude greater levels of design in the universe.
Robert Winston is a stem cell researcher with a strong interest in science education. Sam Harris is a neuroscientist who writes about the conflict between science and religion.You quote Collins in your book: "as I rounded a corner and saw a beautiful waterfall hundreds of feet high, I knew the search [for God] was over." You write, in commentary, "it is astounding that this passage was written with the intent of demonstrating the compatibility of faith and reason". But he is making his own personal judgement about his circumstances, not preaching to the world. Your writing is lovely, funny, but I don't think the denigration of a serious scientist like Collins does a lot of good. We should be very careful about criticising other scientists, except when their science is clearly at fault.The problem for Winston is not really whether the scientific approach is consistent with evangelical Christianity but whether it is appropriate to even raise the issue because it "denigrates" compatibilists. As expected, Winston takes a few swaps at the attitude of the New Atheists.
[Photo Credit: David Levene: guardian.co.uk]
[Hat Tip: RichardDawkins.net]
Don't forget to join us tonight at the Fox & Fiddle, 27 Wellesley St., Toronto for an event sponsored by the Association for Science and Reason (ASR). Professor Moran will talk about the conflict between two types of atheists: those who think science and religion are not compatible, and those who think religion and science are not necessarily in conflict. The accommodationists believe it’s important to ally with moderate religious leaders to combat the intrusion of religious beliefs into our schools and political systems. An important part of this strategy is recognizing that science and religion can be compatible. The other side agrees that such alliances can be fruitful but that should not prevent atheists from speaking out against even moderate forms of religious belief. The National Center for Science Education (NCSE) in the USA is a prominent accommodationist organization and so are the science organizations such as the National Academies and the American Association for the Advancement of Science (AAAS). All of these organizations take a position on the compatibility of (some) religions. Many scientists think that these organizations should not be defending religion.
The IDiots have painted themselves into a corner and they don't know what to do. They have been ranting against "Darwinism" for so long that they've come to believe that their silly version of evolution is what is being taught in the schools. When scientists objected to the "Darwinist" version of evolution the IDiots assumed that this was an objection to evolution. Gradually it seems to be dawning on them that there are legitimate scientific debates over the mechanisms of evolution and the relative contributions of various processes. These controversies have nothing to do with the FACTS of evolution. When writing in technical journals, evolutionary biologists like McPeek or Koonin admit stark problems with neo-Darwinian evolution--i.e.:Do you see the strategy? The IDiots are going to claim that their silly misunderstanding of evolution ("Darwinism" or "neo-Darwinism") is the "fact" of evolution that's being taught in the schools. Thus, it's not their fault that their understanding of evolution is wrong—blame it on the evolutionary biologists.
"elucidating the materialistic basis of the Cambrian explosion has become more elusive, not less, the more we know about the event itself, and cannot be explained away by coupling extinction of intermediates with long stretches of geologic time, despite the contrary claims of some modern neo-Darwinists" (McPeek)
"The edifice of the modern synthesis has crumbled, apparently, beyond repair" (Koonin)
But when their criticisms are cited by a proponent of intelligent design, they quickly toe the materialist party line, designed to reassure the masses that the paradigm has everything in order. Thus, when called upon by the NCSE to publicly defend the paradigm, Koonin eagerly endorses Dobzhansky's creed. As Newton eagerly boasted:
As the geneticist Theodosius Dobzhansky famously said - and as Eugene Koonin explicitly agreed - "Nothing in biology makes sense except in the light of evolution."
Since when do creeds take precedence over the evidence?
None of this, however, changes the fact that Koonin, McPeek, and many other scientists are writing technical papers stating that the neo-Darwinian model is flawed at its very core. Koonin undoubtedly believes Dobzhansky's statement is true, but I doubt he would say "Nothing in biology makes sense except in the light of neo-Darwinism." Why, then, must this model be taught to students as unadulterated fact?
[Image Credit: I got it from James Preller's Blog.]
