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“Each rock is a moment of time,
               a sharp comment on
       our fragile accident of life.”
David Leveson, A Sense of the Earth, 1971
f




    “What we sense as stone is
             an elusive flicker
         in a blur of change.”
“Even the stones disappear
. . . Only the chants remain.”
                       Chinook Proverb
The theme:
The importance of diversity among
the sciences—distinctive styles of
thought and rhetoric, appropriate
methods, responsiveness to particular
challenges, use of metaphor to
construct concepts, contexts of value,
and appeals to aesthetics.
The struggle to grasp “geologic
time” underscores how these
distinctive elements combine to
answer “What to teach?” once the
quest for unity has been
abandoned.
The geosciences well
illustrate the “disunity” of
the sciences and thus counter
the codification of science as
a unified enterprise.
Teaching the
 Geosciences as a
Subversive Activity:
  It’s About Time
                                    Kip Ault
         Teaching the Methods of Geoscience
                   Montana State University
                              June 28, 2012
What to subvert?
The Quest for
             Unity

And its Big Blue Blank Box
Teaching Geoscience as a Subversive Activity
Scientific Inquiry:
Understand science process
   concepts and skills that
          characterize the
    nature and practice of
                  science.
            Oregon Department of Education
We need to question the notion
that all sciences ascribe to the
same habits of mind and the
implication that this principle
ought to guide planning what
to prioritize in teaching science
and scoring achievement.
The issue:
• Teaching generic processes of science
  contrasted with

• An approach that emphasizes methods of
  inquiry adapted to context.
The premise:
Concepts are vital tools of inquiry.
Concept and process exist symbiotically,
not independent of each other. “The”
scientific method is myth, with the myth
persisting in generic “process, nature,
and culture” approaches to teaching
science.
The “forbidden” question:
Does a strong distinction between
content and inquiry (or process) skills
contribute to student alienation from
science?
Thinking in “plurals” is a
place to start: cultures
and natures of the
sciences. . . However . . .
Whether starting with culture or ending with the nature of science,
                 the Basic Science Process Skills
  —observe, infer, classify, measure, predict, communicate—
                    always seem to dominate.
For 50 years the Footprints Puzzle has typified teaching a distinction
                              between observations and inferences
The first portion of the fossil is exposed.
(Bell, 2008)
The entire fossil
Is exposed.
Teaching Geoscience as a Subversive Activity
MAD Magazine
1970
“A Dinosaur
Walks Into the
Museum”


Roland T. Bird
Natural History
v.47(2) 1941


PALUXY RIVER
TEXAS
Teaching Geoscience as a Subversive Activity
Roland T. Bird’s
scenario of a carnosaur
 attacking a sauropod.
Roland T. Bird’s
      scenario of a carnosaur
      attacking a sauropod.



But were the tracks laid
down at the same time?
Teaching Geoscience as a Subversive Activity
The Footprints Puzzle at the Oregon
Zoo along the Cascades Trail
Teaching Geoscience as a Subversive Activity
Megatherium tracks, where Darwin
walked on the Patagonian coast.
Fossil Rhea footprint. Walking rheas provide a modern
analogue for bipedal carnosaur locomotion. Tracks of
fighting hippos help to infer behaviors of sauropods.
Teaching Geoscience as a Subversive Activity
On the trail of a Patagonian Flamingo
Teaching Geoscience as a Subversive Activity
When studying the behavior of
extinct beasts from fossilized
footprints, keep in mind that
hippos are to sauropods as rheas
are to carnosaurs.
We need to pursue a deep concern for:
We need to pursue a deep concern for:

How the conceptualization of the
phenomenon of interest
interacts with the methods of its
investigation.
We need to pursue a deep concern for:

How the conceptualization of the
phenomenon of interest
interacts with the methods of its
investigation.

How this interaction generates different
techniques in order to achieve distinctive
explanatory ideals.
We need to pursue a deep concern for:

How the conceptualization of the
phenomenon of interest
interacts with the methods of its
investigation.

How this interaction generates different
techniques in order to achieve distinctive
explanatory ideals.

How the methods of investigation
yield results calling for the invention
of new concepts.
“The enterprise [of science] . . . has a geography of its
own. In fact, it is not one enterprise, but many, a whole
landscape—or market—of independent epistemic
monopolies producing vastly different products.”

Attention to diversity, to “different architectures of
empirical approaches , specific constructions of the
referent, particular ontologies of the instruments, and
different social machines . . . brings out the diversity of
epistemic cultures. This disunifies the sciences.”
                    Karin Knorr Cetina, Epistemic Cultures, 1998
“The enterprise [of science] . . . has a geography of its
own. In fact, it is not one enterprise, but many, a whole
landscape—or market—of independent epistemic
monopolies producing vastly different products.”

Attention to diversity, to “different architectures of
empirical approaches [map], specific constructions of the
referent [synchrony], particular ontologies of the
instruments [gravitometer], and different social
machines [field camp]” (p. 3) . . . brings out the diversity
of epistemic cultures. This disunifies the sciences.”
                          Knorr Cetina, Epistemic Cultures, 1998
Whether laboratory, field, or experiment
the “extracted aspects” of the natural
object are inscripted; these representation
—often graphical—are subject to scrutiny
and interpretation.

Representations encode what is deemed
“real.” These realities constitute the
fundamental categories of explanatory
thinking at the same time as they “purify
the malleable extract.” (Knorr Cetina)
For example, fundamental categories of
geologic phenomena—faults, deltas,
volcanoes, mantle plumes, plates—
include objects that differ from each
other due to unique histories; in
contrast, members of chemical
categories—elements, isotopes,
compounds—have no individual
identities that bear upon making
reliable predictions.
As a consequence of historical reality, many
of the “extracted aspects” of the natural
world inscripted as geologic phenomena
embody a story: the dimension of time
becomes implicit in the geologic term. For
example, “erosion” has a beginning, middle,
and end; “igneous rock,” a story of origins
to tell. The rhetoric, not just the methods of
investigation, of the geosciences, are
distinctive. The culture has a distinct way of
speaking.
It is my judgment that geoscientists
     are well positioned to argue the
      diversity and distinctiveness of
    various scientific enterprises, the
         plurality, rather than unity,
                       of the sciences.
Acknowledge disunity!
Embrace diversity!
Subvert the quest for unity!
Contradict standardized inquiry!
Exploit plurality!

       . . . and interest will follow
Avoid being hornswoggled by
those who prioritize the “habits of
mind, methods of science,
processes of inquiry, nature of
science, practices of science, big
ideas, or cross-cutting themes”
common to all sciences.
Strive, instead, towards a
different kind of unity—a heuristic
that ferrets out the distinctiveness
 of a domain, that exposes the
traits that disunify, that nests an
inquiry within multiple contexts
including value, aesthetics,
rhetoric, and theory.
Effectively teaching the geosciences
undermines the quest to depict unity
among the sciences. Distinctive styles of
reasoning, responsive to the demands
characteristic of particular problems and
derived from patterns of meaning, are
what to teach.

The meaning of “time” is central to
meeting these demands.
Meaning is use..
How do geoscientists use
the concept of time?
Geoscientists use time as
Place, Referee, Number
Length, Clock, Art, & Value
Time as Place
Place substitutes
for time.
Place on Earth
Place in Time
Place in the Mind
Time as Referee
Sequence and
synchrony in time
referee arguments.
For example, Correlation Charts illustrate:
              Before and after

             At the same time

             For the same time
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Time as Length
acing a geologic timeline to scale and
locating significant events: Backwards or
forwards in time, what is the
psychological difference between the two
experiences?


hat difference does “compression” of
intervals (1 meter = 1 million years
changing to 1 meter = 10 million years)
Lengths represent durations.
Teaching Geoscience as a Subversive Activity
Comparing durations requires clocks.
“In order to time something, you have
  to compare it to something else that
always goes at the same speed. But to
  know it goes at the same speed, you
have to time it. It’s kind of confusing.”
               --John in 4th Grade, 1979
Time as   Clock
Measuring Time
      with the “Popcorn” Clock:

      What to count?

Equal intervals of time derived from the
randomness of decay (analogous to kernels
popping).
How do geoscientists
represent time?
Visual forms in geoscience
picture time artfully.
Visual
                Correlation Charts
depictions of
temporal        Cross-sectional Diagrams
relationships
                Stratigraphic Columns
include:
                Block Diagrams

                Cartoons and Animations

                Contour Maps

                Geologic Maps
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Teaching Geoscience as a Subversive Activity
Selected elements of reality, in vivid, coherent form
     that adhere to Elliot Eisner’s criteria of artistry.
What is the value of understanding
geologic time?
.004% of timeline?
“The variety of rock is infinite
            but circumscribed by
          process and substance.
    It may suggest eternity, but
   it is constantly being created
and constantly being destroyed.
It is, at each instant,
the summary of its past
       and the threshold
             of its future.”
     David Leveson, A Sense of the Earth, 1971
The past reaches into the
present . . .
. . . fostering deep respect for
the present moment.
My Thanks to all for Thoughts on:

Translate Nature into Culture
Discipline Specific Methods
Geologists Didn’t Write Equations
Disconnected Knowledge Structures
The Localized Present
Visualizations . . . Highly Social
Lithic Literacy
Place-based Discipline
Relevance to Everyone
Personal Encounter
Decide, Revisit, Decide
Continuously Inquires
Isolated Silos
Process-oriented
Critical Thinking Skills
Critical Reasoning
Scientific Method Starting Point
Observations from Interpretations
Earth Science Default Course
Science-fair-model Does Not Work
Two Independent Methods

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Teaching Geoscience as a Subversive Activity

  • 1. “Each rock is a moment of time, a sharp comment on our fragile accident of life.” David Leveson, A Sense of the Earth, 1971
  • 2. f “What we sense as stone is an elusive flicker in a blur of change.”
  • 3. “Even the stones disappear . . . Only the chants remain.” Chinook Proverb
  • 4. The theme: The importance of diversity among the sciences—distinctive styles of thought and rhetoric, appropriate methods, responsiveness to particular challenges, use of metaphor to construct concepts, contexts of value, and appeals to aesthetics.
  • 5. The struggle to grasp “geologic time” underscores how these distinctive elements combine to answer “What to teach?” once the quest for unity has been abandoned.
  • 6. The geosciences well illustrate the “disunity” of the sciences and thus counter the codification of science as a unified enterprise.
  • 7. Teaching the Geosciences as a Subversive Activity: It’s About Time Kip Ault Teaching the Methods of Geoscience Montana State University June 28, 2012
  • 9. The Quest for Unity And its Big Blue Blank Box
  • 11. Scientific Inquiry: Understand science process concepts and skills that characterize the nature and practice of science. Oregon Department of Education
  • 12. We need to question the notion that all sciences ascribe to the same habits of mind and the implication that this principle ought to guide planning what to prioritize in teaching science and scoring achievement.
  • 13. The issue: • Teaching generic processes of science contrasted with • An approach that emphasizes methods of inquiry adapted to context.
  • 14. The premise: Concepts are vital tools of inquiry. Concept and process exist symbiotically, not independent of each other. “The” scientific method is myth, with the myth persisting in generic “process, nature, and culture” approaches to teaching science.
  • 15. The “forbidden” question: Does a strong distinction between content and inquiry (or process) skills contribute to student alienation from science?
  • 16. Thinking in “plurals” is a place to start: cultures and natures of the sciences. . . However . . .
  • 17. Whether starting with culture or ending with the nature of science, the Basic Science Process Skills —observe, infer, classify, measure, predict, communicate— always seem to dominate.
  • 18. For 50 years the Footprints Puzzle has typified teaching a distinction between observations and inferences
  • 19. The first portion of the fossil is exposed.
  • 24. “A Dinosaur Walks Into the Museum” Roland T. Bird Natural History v.47(2) 1941 PALUXY RIVER TEXAS
  • 26. Roland T. Bird’s scenario of a carnosaur attacking a sauropod.
  • 27. Roland T. Bird’s scenario of a carnosaur attacking a sauropod. But were the tracks laid down at the same time?
  • 29. The Footprints Puzzle at the Oregon Zoo along the Cascades Trail
  • 31. Megatherium tracks, where Darwin walked on the Patagonian coast.
  • 32. Fossil Rhea footprint. Walking rheas provide a modern analogue for bipedal carnosaur locomotion. Tracks of fighting hippos help to infer behaviors of sauropods.
  • 34. On the trail of a Patagonian Flamingo
  • 36. When studying the behavior of extinct beasts from fossilized footprints, keep in mind that hippos are to sauropods as rheas are to carnosaurs.
  • 37. We need to pursue a deep concern for:
  • 38. We need to pursue a deep concern for: How the conceptualization of the phenomenon of interest interacts with the methods of its investigation.
  • 39. We need to pursue a deep concern for: How the conceptualization of the phenomenon of interest interacts with the methods of its investigation. How this interaction generates different techniques in order to achieve distinctive explanatory ideals.
  • 40. We need to pursue a deep concern for: How the conceptualization of the phenomenon of interest interacts with the methods of its investigation. How this interaction generates different techniques in order to achieve distinctive explanatory ideals. How the methods of investigation yield results calling for the invention of new concepts.
  • 41. “The enterprise [of science] . . . has a geography of its own. In fact, it is not one enterprise, but many, a whole landscape—or market—of independent epistemic monopolies producing vastly different products.” Attention to diversity, to “different architectures of empirical approaches , specific constructions of the referent, particular ontologies of the instruments, and different social machines . . . brings out the diversity of epistemic cultures. This disunifies the sciences.” Karin Knorr Cetina, Epistemic Cultures, 1998
  • 42. “The enterprise [of science] . . . has a geography of its own. In fact, it is not one enterprise, but many, a whole landscape—or market—of independent epistemic monopolies producing vastly different products.” Attention to diversity, to “different architectures of empirical approaches [map], specific constructions of the referent [synchrony], particular ontologies of the instruments [gravitometer], and different social machines [field camp]” (p. 3) . . . brings out the diversity of epistemic cultures. This disunifies the sciences.” Knorr Cetina, Epistemic Cultures, 1998
  • 43. Whether laboratory, field, or experiment the “extracted aspects” of the natural object are inscripted; these representation —often graphical—are subject to scrutiny and interpretation. Representations encode what is deemed “real.” These realities constitute the fundamental categories of explanatory thinking at the same time as they “purify the malleable extract.” (Knorr Cetina)
  • 44. For example, fundamental categories of geologic phenomena—faults, deltas, volcanoes, mantle plumes, plates— include objects that differ from each other due to unique histories; in contrast, members of chemical categories—elements, isotopes, compounds—have no individual identities that bear upon making reliable predictions.
  • 45. As a consequence of historical reality, many of the “extracted aspects” of the natural world inscripted as geologic phenomena embody a story: the dimension of time becomes implicit in the geologic term. For example, “erosion” has a beginning, middle, and end; “igneous rock,” a story of origins to tell. The rhetoric, not just the methods of investigation, of the geosciences, are distinctive. The culture has a distinct way of speaking.
  • 46. It is my judgment that geoscientists are well positioned to argue the diversity and distinctiveness of various scientific enterprises, the plurality, rather than unity, of the sciences.
  • 47. Acknowledge disunity! Embrace diversity! Subvert the quest for unity! Contradict standardized inquiry! Exploit plurality! . . . and interest will follow
  • 48. Avoid being hornswoggled by those who prioritize the “habits of mind, methods of science, processes of inquiry, nature of science, practices of science, big ideas, or cross-cutting themes” common to all sciences.
  • 49. Strive, instead, towards a different kind of unity—a heuristic that ferrets out the distinctiveness of a domain, that exposes the traits that disunify, that nests an inquiry within multiple contexts including value, aesthetics, rhetoric, and theory.
  • 50. Effectively teaching the geosciences undermines the quest to depict unity among the sciences. Distinctive styles of reasoning, responsive to the demands characteristic of particular problems and derived from patterns of meaning, are what to teach. The meaning of “time” is central to meeting these demands.
  • 52. How do geoscientists use the concept of time?
  • 53. Geoscientists use time as Place, Referee, Number Length, Clock, Art, & Value
  • 58. Place in the Mind
  • 60. Sequence and synchrony in time referee arguments.
  • 61. For example, Correlation Charts illustrate: Before and after At the same time For the same time
  • 68. acing a geologic timeline to scale and locating significant events: Backwards or forwards in time, what is the psychological difference between the two experiences? hat difference does “compression” of intervals (1 meter = 1 million years changing to 1 meter = 10 million years)
  • 72. “In order to time something, you have to compare it to something else that always goes at the same speed. But to know it goes at the same speed, you have to time it. It’s kind of confusing.” --John in 4th Grade, 1979
  • 73. Time as Clock
  • 74. Measuring Time with the “Popcorn” Clock: What to count? Equal intervals of time derived from the randomness of decay (analogous to kernels popping).
  • 76. Visual forms in geoscience picture time artfully.
  • 77. Visual Correlation Charts depictions of temporal Cross-sectional Diagrams relationships Stratigraphic Columns include: Block Diagrams Cartoons and Animations Contour Maps Geologic Maps
  • 84. Selected elements of reality, in vivid, coherent form that adhere to Elliot Eisner’s criteria of artistry.
  • 85. What is the value of understanding geologic time?
  • 87. “The variety of rock is infinite but circumscribed by process and substance. It may suggest eternity, but it is constantly being created and constantly being destroyed.
  • 88. It is, at each instant, the summary of its past and the threshold of its future.” David Leveson, A Sense of the Earth, 1971
  • 89. The past reaches into the present . . .
  • 90. . . . fostering deep respect for the present moment.
  • 91. My Thanks to all for Thoughts on: Translate Nature into Culture Discipline Specific Methods Geologists Didn’t Write Equations Disconnected Knowledge Structures The Localized Present Visualizations . . . Highly Social Lithic Literacy Place-based Discipline Relevance to Everyone Personal Encounter Decide, Revisit, Decide Continuously Inquires Isolated Silos Process-oriented Critical Thinking Skills Critical Reasoning Scientific Method Starting Point Observations from Interpretations Earth Science Default Course Science-fair-model Does Not Work Two Independent Methods

Editor's Notes

  • #7: By codification, I refer to state accountability policies and documents.
  • #12: "Science as process" was the slogan guiding reform in the 60s and 70s; teaching "science as continuous inquiry" in the 80s and "nature of science" in the 90s.  The 21st century jargon is teaching the "practices of science" which the NRC is careful to describe as using content knowledge and process skills "simultaneously" (NRC's word).  Oregon has graciously combined all of this jargon into one tidy statement, a circular slogan designed neither to offend nor omit anyone. There is no surprise that blue, blank space appears beneath it--an apt symbol of the fuzzy thinking and failure to wrestle with inquiry contextualized by subject and subjects offering distinctive approaches for investigating the natural world. Consider Bell ’s Teaching the Nature of Science Through Process Skills and