What is *On the Fringe* by Michael D. Gordin about?

*On the Fringe* examines the blurred line between science and pseudoscience, analyzing historical cases like Soviet-era technologies, astrology, and eugenics. Gordin argues that terms like "pseudoscience" lack fixed definitions and are shaped by cultural and political contexts. The book explores how once-respected fields become marginalized and how ideology influences scientific legitimacy.

Who should read *On the Fringe*?

This book is ideal for readers interested in the history of science, Cold War politics, or the sociology of knowledge. Academics, students, and enthusiasts of science communication will appreciate Gordin’s analysis of how societal forces categorize ideas as "mainstream" or "fringe".

Is *On the Fringe* worth reading?

Yes. Gordin’s nuanced exploration challenges assumptions about scientific legitimacy, offering fresh perspectives on historical and modern debates. Its accessible style balances scholarly rigor with engaging case studies, making it valuable for general readers and experts alike.

What examples of pseudoscience does Michael D. Gordin analyze?

Gordin discusses vestigial sciences (e.g., astrology), hyperpoliticized projects (Nazi “German science”), and counterestablishment movements (creationism). He also examines Soviet biological weapons programs and the ideological suppression of genetics under Stalin.

How does *On the Fringe* define pseudoscience?

The book rejects a universal definition, instead showing how pseudoscience is a fluid label applied to ideas contradicting dominant paradigms. Gordin emphasizes that disciplines like alchemy were once mainstream, while others gain pseudoscientific labels due to political or social pressures.

What is “vestigial science” according to *On the Fringe*?

Vestigial sciences are fields like astrology or phrenology that lost scientific credibility but persist culturally. Gordin highlights how these were once integral to academic study, demonstrating how scientific validity shifts over time.

How does *On the Fringe* address Soviet science and technology?

The book details Soviet achievements in the space race and bioweapons, framed as tools of political ambition. Gordin also analyzes the collapse of USSR scientific institutions and their global impact, emphasizing how state ideology shaped research priorities.

What criticisms does *On the Fringe* face?

Some reviewers note limited depth on modern pseudoscience (e.g., climate denial) and uneven coverage of topics like ESP. However, these gaps don’t diminish the book’s core analysis of historical cases.

『ニセ科学の見分け方』の要約

科学と超常現象が交わる場所

マイケル・D・ゴーディン

3.68(158 Reviews)

『ニセ科学の見分け方』の要約の概要

科学はどこで終わり、擬似科学はどこから始まるのでしょうか？プリンストン大学の歴史学者ゴーディンによるこの魅力的な探求は、カール・ポパーの「反証可能性」という基準に疑問を投げかけ、非主流派のアイデアがいかに主流の思考を形成しているかを明らかにします。気候変動否定論や反ワクチン運動が科学の境界を曖昧にしている現代において、必読の一冊です。

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第1章

The Blurred Lines of Scientific Legitimacy

Science often appears as a monolith of established facts and theories, but what happens at its edges? Imagine discovering that the boundaries between legitimate science and fringe theories are not fixed walls but permeable membranes, constantly shifting as knowledge evolves. Michael D. Gordin's "On the Fringe" explores this fascinating borderland where today's pseudoscience might become tomorrow's breakthrough-or remain forever exiled. This book has become required reading in science philosophy programs at institutions like MIT and Stanford, with figures from Neil deGrasse Tyson to Steven Pinker praising its nuanced approach. In an era of rampant misinformation, Gordin's exploration of how scientific legitimacy forms couldn't be more timely, offering readers a compass for navigating an increasingly complex information landscape where the line between fact and fiction often blurs.

第2章

The Dynamic Boundaries of Scientific Knowledge

The boundaries between mainstream science and its fringes aren't fixed barriers but dynamic interfaces that shift over time. Scientific knowledge doesn't simply divide into "true" and "false" categories - it exists on a spectrum where legitimacy is constantly negotiated through complex social and institutional processes. These boundaries reveal much about how scientific authority functions and how knowledge becomes accepted or rejected by the scientific community through peer review, institutional validation, and broader cultural acceptance. Consider continental drift theory, proposed by Alfred Wegener in 1912. For decades, geologists dismissed his idea that continents move across the Earth's surface as absurd pseudoscience. Without a plausible mechanism to explain how continents could plow through solid ocean floor, the theory remained firmly on the fringe. Yet by the 1960s, with the discovery of seafloor spreading and plate tectonics, continental drift moved from the margins to become a cornerstone of modern geology. This transformation wasn't merely about new evidence - it required a fundamental shift in how geologists conceptualized Earth's structure and dynamics. Similar boundary shifts occurred with other now-accepted theories. The bacterial cause of ulcers, proposed by Barry Marshall and Robin Warren, faced fierce resistance until their Nobel Prize-winning discovery revolutionized treatment. Prions - proteins that could transmit disease without genetic material - were initially dismissed as impossible until Stanley Prusiner's work forced a reconceptualization of infectious disease mechanisms. These examples illustrate how scientific legitimacy operates not just through empirical evidence but through social processes. The scientific community initially lacks the conceptual framework to accommodate paradigm-shifting insights. Only when supporting evidence accumulates and theoretical mechanisms emerge do ideas cross the boundary into mainstream acceptance. This process often requires generational change, as younger scientists prove more receptive to new paradigms. These boundaries serve crucial functions in the scientific enterprise. They help maintain methodological standards, filter out unfounded claims, and provide structure to scientific inquiry. They protect the integrity of scientific knowledge while allowing for its evolution. Yet they can sometimes impede innovation when potentially valuable ideas are prematurely dismissed. The tension between openness to new ideas and maintenance of rigorous standards lies at the heart of scientific practice. What makes this boundary work particularly fascinating is its invisibility to those within mainstream science. Established scientists rarely perceive themselves as engaging in boundary-drawing activities - they're simply doing "good science." Yet these implicit demarcations profoundly shape which research questions are pursued, which methodologies are considered valid, and whose voices are amplified or silenced within scientific discourse. The gatekeeping function of peer review, funding decisions, and publication practices all contribute to maintaining these boundaries while simultaneously allowing for their gradual evolution. Understanding these dynamic boundaries helps explain both the conservative nature of scientific institutions and their capacity for revolutionary change. It reveals science as a human endeavor, subject to social forces yet ultimately capable of transcending them through its commitment to empirical evidence and theoretical coherence.

聴きながら、すべての言葉を目で追えます

『ニセ科学の見分け方』の要約の一語一語が音声に合わせてリアルタイムでハイライトされ、自然に読み進められます。

第3章

The Social Construction of Scientific Authority

Scientific authority isn't simply bestowed upon those with the most accurate theories - it's constructed through complex social processes involving institutions, credentials, rhetorical strategies, and networks of influence. Understanding how certain knowledge claims become authoritative while others are marginalized reveals science as a deeply social enterprise shaped by power dynamics, cultural contexts, and institutional frameworks. Take the case of Barbara McClintock, whose work on "jumping genes" (transposable genetic elements) was initially dismissed as fringe science in the 1950s. Despite her impeccable credentials and methodical research at Cold Spring Harbor Laboratory, her findings contradicted the central dogma of molecular biology at the time. For decades, her work remained marginalized until molecular techniques advanced enough to confirm her discoveries. In 1983, she finally received a Nobel Prize - recognition that came nearly thirty years after her groundbreaking research. Similar cases include the initial rejection of continental drift theory proposed by Alfred Wegener and the dismissal of Stanley Prusiner's work on prions, both eventually vindicated by subsequent evidence. Institutional affiliation plays a crucial role in establishing scientific authority. Research conducted at prestigious universities or well-funded laboratories typically receives more attention and credibility than identical work performed at less renowned institutions. This creates a Matthew effect in science, where recognition and resources flow disproportionately to already established figures and institutions. For example, papers from Harvard or MIT often receive more citations and media coverage than similar work from regional universities, regardless of merit. This self-reinforcing cycle affects everything from grant funding to speaking invitations at major conferences. Publication venues similarly function as powerful arbiters of legitimacy. Appearing in journals like Nature or Science confers immediate credibility, while publication in less prestigious or specialized journals may leave important findings overlooked. The peer review process itself reflects existing power structures, with established researchers serving as gatekeepers who can shape what questions are considered worthy of investigation. Impact factors and citation metrics further reinforce these hierarchies, creating pressure to pursue "fashionable" research topics rather than potentially groundbreaking but unconventional lines of inquiry. The language of science itself serves as a boundary-marking mechanism. Mastery of specialized terminology, citation practices, and methodological conventions signals belonging to the scientific community. Those unable to communicate in these established forms - regardless of the value of their ideas - often find themselves pushed to the margins. This linguistic gatekeeping particularly affects researchers from non-English speaking countries and those working outside traditional academic settings. Citizen scientists and indigenous knowledge holders, for instance, often struggle to gain recognition despite possessing valuable insights. These social dimensions of scientific authority don't invalidate science's epistemic achievements. Rather, they help explain why scientific consensus sometimes resists novel ideas before eventually incorporating them. Understanding science as socially constructed doesn't mean anything goes - it means recognizing that knowledge production always occurs within specific social contexts that shape what counts as legitimate inquiry. This awareness can help us build more inclusive scientific institutions and develop mechanisms to evaluate unconventional ideas more fairly.

第4章

Pathways From Fringe to Mainstream

How do ideas move from the scientific periphery to the center? This journey isn't simply about accumulating evidence - it involves strategic positioning, institutional support, and effective responses to methodological criticisms. Several distinct pathways emerge from examining historical cases where once-marginalized theories gained acceptance, revealing the complex interplay between scientific evidence and social dynamics. Finding institutional champions represents one crucial pathway. When established scientists with secure positions advocate for controversial ideas, they lend credibility that helps overcome initial resistance. Luis Alvarez, a Nobel Prize-winning physicist, provided such championship for the asteroid impact theory of dinosaur extinction. His scientific standing helped the theory gain traction despite initial skepticism from paleontologists. Similarly, Stanley Prusiner's work on prions - proteins that could transmit disease without genetic material - faced fierce resistance until several prominent researchers began supporting his findings, eventually leading to his Nobel Prize in 1997. Connecting fringe ideas to established research programs offers another pathway to legitimacy. Successful boundary-crossers often frame their work not as revolutionary challenges but as extensions or solutions to recognized problems within mainstream science. For instance, quantum mechanics gained acceptance partly because its early proponents showed how it solved specific problems in atomic spectroscopy that classical physics couldn't explain. Barbara McClintock's discovery of genetic transposition initially met skepticism but gained acceptance as molecular biology advanced and confirmed her observations. Responding effectively to methodological criticisms proves essential for legitimacy. Fringe theories that eventually gain acceptance typically evolve in response to legitimate criticisms, improving their methodological rigor and explanatory power. The field of epigenetics, for instance, moved from the margins to mainstream by developing precise molecular mechanisms and responding to skeptics' demands for more rigorous experimental evidence. Those that remain permanently marginalized often fail to address fundamental methodological concerns, instead dismissing criticism as evidence of conspiracy or closed-mindedness. Timing and scientific context matter tremendously. Some ideas gain acceptance not because they suddenly acquire more evidence but because the surrounding scientific landscape shifts. When new instruments, methods, or theoretical frameworks emerge, previously implausible ideas may suddenly appear viable. The acceptance of continental drift theory coincided with new technologies for mapping the ocean floor that revealed seafloor spreading - a mechanism that made continental movement plausible. Similarly, the development of powerful electron microscopes enabled the visualization of cellular structures that confirmed once-controversial theories about cell organization. Perhaps most importantly, successful boundary-crossing requires effective translation between different scientific communities. Ideas often remain fringe when they fail to connect with the conceptual frameworks and concerns of mainstream fields. The field of cybernetics successfully crossed boundaries by showing its relevance to multiple disciplines, from computer science to biology. Those that successfully cross boundaries typically find ways to demonstrate relevance to existing scientific questions and translate their insights into terms recognizable to established disciplines. These pathways reveal scientific progress as neither purely rational nor entirely social. Instead, theories move from fringe to mainstream through complex interactions between evidence, social networks, institutional structures, and effective communication strategies. The history of science shows that successful transitions often require both solid empirical foundation and skilled navigation of the social and institutional landscape of scientific practice.

『ニセ科学の見分け方』の要約をもっと深く楽しむ

毎日の新しい気づきを10万件以上のレッスンから
言葉をハイライトして音声と同期
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第5章

The Persistence of Pseudoscience

Despite science's capacity to incorporate once-marginalized ideas, some theories remain permanently excluded from mainstream acceptance. What distinguishes theories that eventually cross boundaries from those that remain perpetually fringe? The answer lies not simply in evidence but in specific characteristics that mark certain claims as pseudoscientific. Immunity to falsification stands as a hallmark of persistent pseudoscience. While legitimate scientific theories specify conditions under which they could be proven wrong, pseudoscientific claims often incorporate protective mechanisms that render them impervious to contrary evidence. When contradictory data emerges, rather than reconsidering core premises, proponents simply add auxiliary hypotheses to explain away inconsistencies. Consider astrology, which persists despite numerous controlled studies finding no correlation between celestial positions at birth and personality traits. When confronted with negative evidence, astrologers typically respond not by questioning their fundamental premises but by adding complications-perhaps the subject's exact birth minute was recorded incorrectly, or additional celestial influences weren't properly accounted for. This pattern of immunizing strategies distinguishes theories that remain permanently fringe. Disconnection from evolving scientific knowledge represents another characteristic of persistent pseudoscience. Legitimate fringe theories that eventually gain acceptance typically engage with mainstream scientific developments, incorporating new findings and responding to changing methodological standards. Perpetually fringe theories, by contrast, often remain frozen in time, continuing to reference outdated concepts and ignoring relevant advances in related fields. Social organization also differs between potentially legitimate fringe theories and persistent pseudoscience. The former typically develop within or adjacent to scientific institutions, with proponents publishing in specialized journals and attending professional conferences. Perpetually fringe theories often create parallel institutions entirely separate from mainstream science-their own journals, conferences, and certification systems that mimic scientific structures without engaging with broader scientific communities. Perhaps most tellingly, persistent pseudoscience often displays a pattern of extraordinary claims coupled with ordinary evidence. While revolutionary scientific theories certainly make dramatic claims, they typically provide correspondingly powerful evidence. Pseudoscientific theories frequently promise to overturn fundamental scientific principles based on limited, anecdotal, or methodologically flawed evidence. Understanding these characteristics helps explain why some fringe theories eventually gain acceptance while others remain permanently marginalized. This distinction doesn't rely on simplistic appeals to scientific authority but on recognizable patterns in how knowledge claims are constructed, defended, and situated within broader scientific contexts.

第6章

The Historical Contingency of Scientific Consensus

Scientific consensus-the general agreement among specialists in a field-often appears from the outside as timeless truth. Yet historical analysis reveals consensus as profoundly contingent, shaped by specific historical circumstances, available technologies, and prevailing theoretical frameworks. This contingency doesn't undermine science's epistemic achievements but highlights how scientific knowledge develops through particular historical pathways that could have unfolded differently. The history of continental drift theory illustrates this contingency beautifully. When Alfred Wegener proposed that continents move across the Earth's surface in 1912, his theory wasn't rejected because geologists were dogmatic or close-minded. Rather, the theoretical framework of the time simply couldn't accommodate continental movement-no known force could explain how solid continents could plow through equally solid oceanic crust. The consensus against continental drift made perfect sense given the knowledge available. Only with the development of new technologies for mapping the ocean floor in the 1950s and 1960s did evidence emerge for seafloor spreading and subduction-mechanisms that finally explained how continental movement could occur. The shift in consensus wasn't simply about accumulating more evidence for the same theory; it required a fundamental reconceptualization of Earth's structure that wasn't available in Wegener's time. This historical contingency appears throughout scientific history. The rejection of Ignaz Semmelweis's hand-washing protocols to prevent childbed fever made sense in a pre-germ theory context, where miasma theory dominated medical thinking. The initial skepticism toward prions-proteins that can transmit disease without genetic material-was reasonable given the central dogma of molecular biology that prevailed before their discovery. Understanding consensus as historically contingent helps explain why scientific communities sometimes resist novel ideas that later prove valuable. Scientists work within specific theoretical frameworks that make certain questions askable and others unthinkable. These frameworks aren't arbitrary-they represent the accumulated wisdom of generations of research-but they inevitably shape what counts as a reasonable hypothesis or acceptable evidence at any given moment. This perspective offers a more nuanced view than either naive scientific triumphalism (which portrays science as an inevitable march toward truth) or radical constructivism (which reduces scientific knowledge to mere social convention). Instead, it recognizes scientific knowledge as both socially embedded and genuinely epistemic-produced through specific historical circumstances yet capable of generating reliable insights about the natural world.

聴きながら、すべての言葉を目で追えます

『ニセ科学の見分け方』の要約の一語一語が音声に合わせてリアルタイムでハイライトされ、自然に読み進められます。

第7章

Power Dynamics in Knowledge Production

Who gets to define what counts as legitimate knowledge? This question reveals how power operates within scientific communities, shaping which research questions receive attention, which methodologies are considered valid, and whose voices carry authority. These power dynamics don't invalidate scientific knowledge but highlight how science functions as a human enterprise embedded in broader social contexts. Funding structures profoundly influence which research directions flourish and which wither. When pharmaceutical companies provide the bulk of funding for drug research, studies naturally focus on potentially profitable treatments rather than preventive approaches or affordable interventions for neglected diseases. This doesn't make the resulting knowledge false, but it creates systematic gaps in what we know and don't know. Consider how power dynamics shaped the delayed recognition of Rosalind Franklin's crucial contributions to discovering DNA's structure. Despite generating the X-ray crystallography images that proved essential to understanding DNA's double-helix structure, Franklin's work was marginalized in the narrative of this discovery. Gender dynamics within mid-20th century scientific institutions influenced whose contributions were amplified and whose were sidelined. Disciplinary hierarchies similarly affect knowledge production. Physics has historically enjoyed greater prestige and funding than fields like ecology or psychology, influencing which questions receive attention and resources. When ecological concerns were marginalized during much of the 20th century, important environmental impacts of industrial development remained understudied despite their significance. Geographic and linguistic disparities also shape scientific authority. Research conducted in North American and European institutions typically receives more attention and citations than equally rigorous work from other regions. Publication in English-language journals has become virtually mandatory for international recognition, creating barriers for scientists working primarily in other languages. These power dynamics create what philosopher Miranda Fricker calls "epistemic injustice"-situations where certain individuals or groups face unfair disadvantages in their capacity as knowers. When indigenous knowledge about ecological systems is dismissed as unscientific despite its empirical basis, or when medical symptoms reported predominantly by women are characterized as psychosomatic without adequate investigation, epistemic injustices occur that impoverish our collective knowledge. Recognizing these power dynamics doesn't mean embracing relativism about scientific claims. Rather, it highlights how scientific communities might produce more comprehensive and robust knowledge by addressing structural inequalities that currently limit whose questions, methods, and perspectives are taken seriously in knowledge production.

第8章

Navigating the Mainstream-Fringe Boundary Today

How should we approach the boundary between mainstream and fringe science in our information-saturated age? This question has never been more urgent, as social media and the internet have democratized information sharing while simultaneously enabling the rapid spread of misinformation. Navigating this landscape requires balancing openness to potentially valuable unorthodox ideas with justified skepticism toward claims lacking empirical support. The COVID-19 pandemic illustrates the stakes of this navigation. Early in the pandemic, the laboratory leak hypothesis for SARS-CoV-2's origin was widely dismissed as a fringe conspiracy theory. Yet as time passed, some scientists argued this possibility deserved serious investigation alongside the natural spillover hypothesis. This case demonstrates how prematurely labeling an idea as beyond the pale can sometimes impede investigation of legitimate scientific questions. Conversely, truly unfounded claims about COVID-19-from miracle cures to microchip vaccines-spread rapidly through social media, causing real harm. This demonstrates why boundaries between established knowledge and unsupported speculation remain necessary, even as we recognize their potential limitations. Several principles can guide thoughtful navigation of this boundary. First, distinguish between heterodox theories proposed by those engaged with relevant scientific fields and claims made by those operating entirely outside established scientific methods and communities. The former may represent valuable challenges to consensus, while the latter more often reflect fundamental misunderstandings of basic scientific principles. Second, examine whether proponents of fringe theories respond substantively to methodological criticisms or simply dismiss them as evidence of conspiracy or closed-mindedness. Potentially valuable fringe theories typically evolve in response to legitimate criticisms, improving their explanatory power and methodological rigor over time. Third, consider whether fringe claims make testable predictions or remain perpetually immune to falsification. Theories that specify no conditions under which they could be proven wrong typically represent pseudoscience rather than potentially valuable challenges to scientific consensus. Fourth, assess whether proponents acknowledge the tentative nature of their claims or present them as absolute certainties despite limited evidence. Scientific humility-recognizing the provisional nature of knowledge claims-characterizes legitimate scientific work, whether mainstream or fringe. Finally, examine whether fringe theories address genuine explanatory gaps in current scientific understanding or simply reject well-established knowledge without providing superior alternatives. The most valuable challenges to scientific consensus typically emerge in areas where existing theories face recognized limitations. These principles don't provide algorithmic certainty but offer guideposts for thoughtfully engaging with knowledge claims that challenge established consensus. They help us remain open to potentially valuable unorthodox ideas while maintaining justified skepticism toward claims lacking empirical support.

『ニセ科学の見分け方』の要約をもっと深く楽しむ

毎日の新しい気づきを10万件以上のレッスンから
言葉をハイライトして音声と同期
ライブラリを保存して、どの端末からでも利用

第9章

Science as a Human Enterprise

Science represents humanity's most successful method for generating reliable knowledge about the natural world. Yet science is not conducted by disembodied minds but by human beings embedded in particular historical, social, and cultural contexts. Understanding science as a human enterprise doesn't diminish its epistemic achievements but enriches our appreciation of how scientific knowledge develops through complex social processes. The human dimensions of science appear clearly in the story of continental drift theory's journey from fringe to mainstream. Alfred Wegener's initial proposal faced resistance not just because of insufficient evidence but because it challenged geologists' professional identities and disciplinary boundaries. As an astronomer and meteorologist proposing a geological theory, Wegener was viewed as an outsider transgressing disciplinary territories. The eventual acceptance of plate tectonics decades later involved not just new evidence but shifts in disciplinary cultures and the emergence of new scientific identities around geophysics. Scientific controversies often involve deeply human elements-professional rivalries, institutional politics, competing values, and struggles for recognition. When Stanley Prusiner proposed that proteins alone could transmit disease (prions), he faced fierce resistance partly because this claim challenged central dogmas about disease transmission. His eventual vindication came through persistent work that gradually convinced skeptics, revealing how scientific progress often depends on distinctly human qualities like persistence in the face of criticism. The human dimensions of science also appear in how scientific communities establish trust. Scientific knowledge doesn't advance through isolated geniuses making discoveries but through communities of researchers who develop shared standards, practices, and values. These communities must balance skepticism toward new claims with sufficient trust to build upon others' work. This balance isn't achieved through abstract rules but through social processes that establish credibility and trustworthiness. Recognizing science as a human enterprise helps explain both its remarkable achievements and its occasional failures. Science works not despite but partly because of its social dimensions-the practices of peer review, replication, and critical evaluation that help scientific communities identify errors and gradually build reliable knowledge. At the same time, science's human elements help explain why scientific communities sometimes resist valuable innovations or perpetuate biases that limit their understanding. This perspective offers a middle path between naive scientism that portrays science as a purely rational enterprise and postmodern critiques that reduce science to mere social construction. Science is indeed socially constructed-it couldn't exist without human communities, institutions, and practices-but this social construction produces knowledge that successfully engages with reality beyond social conventions. Understanding this dual nature helps us appreciate science's remarkable achievements while recognizing opportunities to make scientific practices more inclusive, reflexive, and responsive to diverse human needs.

★★★★★

『ニセ科学の見分け方』の要約を最後まで読み終えました

“23日間、毎日使い続けています。今では日課の一部です。”

jayallen

『ニセ科学の見分け方』の要約の主要テーマ

demarcation problem
scientific legitimacy
pseudoscience history
boundary work
institutional gatekeeping

『ニセ科学の見分け方』の要約の名言集

Today's pseudoscience might become tomorrow's breakthrough.
Boundaries aren't fixed barriers but dynamic interfaces.
Science is a human endeavor, subject to social forces.
Science's legitimacy is negotiated through social processes.
Peer review reflects existing power structures.

『ニセ科学の見分け方』の要約の登場人物

Michael D. GordinAuthor and historian of science
Alfred WegenerGeophysicist who proposed continental drift
Barbara McClintockNobel-winning scientist who discovered jumping genes
Stanley PrusinerScientist who identified prions as disease agents
Barry MarshallPhysician who proved bacteria cause ulcers

著者について

『On the Fringe: Where Science Meets Pseudoscience』の著者であるマイケル・D・ゴーディン（Michael D. Gordin）は、プリンストン大学のローゼンガルテン近代・現代史教授です。彼は、正統な科学と周縁化された知識体系との間にある歴史的な相互作用についての第一人者です。

ハーバード大学で訓練を受けた科学史家であり、ロシア史と核兵器を専門とするゴーディンは、主流の科学的パラダイムと並行して擬似科学がいかにして出現し、進化するかを追究しています。高く評価されている著作には、『A Well-Ordered Thing』（ドミトリ・メンデレーエフの文化的伝記）や『Five Days in August』（日本の原爆投下に関する著作）などがあり、いずれも厳格な学術研究と親しみやすい語り口を融合させた点が高く評価されています。

グッゲンハイム・フェローであり、ドイツ国立科学アカデミーの会員でもあるゴーディンは、『The Los Angeles Review of Books』への寄稿や、カーネギー評議会のポッドキャストへの出演も行っています。『On the Fringe』は『Science News』誌によって2021年のトップ・サイエンス・ブックに選ばれ、ドイツ語にも翻訳されるなど、科学的正当性をめぐる議論において確固たる役割を築いています。

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私は 24 年間、PhotoReading 加速学習のインストラクターをしています… 本と読書と学びが私の専門ですが、BeFreed は情報を消化しやすい形で届ける革新的なアプローチを見事に実現しています。

@BeFreed user

ただの本の要約アプリではありません。「ファン」スタイルを使ってみたら、従来のやり方よりずっと良い要約で、アイデアもつかみやすいです。これだけでも十分元が取れます。

@austinakon

このアプリが大好きです。数日使っただけで、聞くのが止まらなくなりました。始め方として最高です。

@jcrules328

本当に気に入っています。約 1 か月試していますが、まさに掘り出し物だと感じます。BeFreed で自分だけのテーマを作れるのが便利で、声も素晴らしく、ナレーションの選択肢は無限です。

@DanielCZ

正直、まだアプリを使いこなせていませんが、この数日使っただけで本当に感動しました… BeFreed は、今まで使ったどの学習アプリともレベルが違います。夢中になれるうえに集中力も実際に上がるので、スマホをだらだら見てしまう人にぴったりです！

@ladyInfinity

ちょうど 23 日前に BeFreed を購入して、それから毎日欠かさず使っています。仕事の流れと学習習慣に完全に溶け込みました。

@jayallen

正直なところ、このアプリは期待をすべて超えてきました。どんなテーマでも音声を生成してもらえて、その結果には驚かされます。私の専門は心理療法で、多分野にまたがる領域ですが、それでも回答はとても正確です。

@Raguipa

何よりありがたいのは、スマホをだらだら見る時間が減ったことです。探す時間が減って、吸収する時間が増えました。オーディオブック、ポッドキャスト、学習プランの組み合わせが素晴らしいです。

@colonyofcreatorsNGO

私は 24 年間、PhotoReading 加速学習のインストラクターをしています… 本と読書と学びが私の専門ですが、BeFreed は情報を消化しやすい形で届ける革新的なアプローチを見事に実現しています。

@BeFreed user

ただの本の要約アプリではありません。「ファン」スタイルを使ってみたら、従来のやり方よりずっと良い要約で、アイデアもつかみやすいです。これだけでも十分元が取れます。

@austinakon

このアプリが大好きです。数日使っただけで、聞くのが止まらなくなりました。始め方として最高です。

@jcrules328

本当に気に入っています。約 1 か月試していますが、まさに掘り出し物だと感じます。BeFreed で自分だけのテーマを作れるのが便利で、声も素晴らしく、ナレーションの選択肢は無限です。

@DanielCZ

役立つ情報やアイデアを 8〜15 分のポッドキャスト風音声にぎゅっとまとめて聞けるのが最高です。ポッドキャストは余計な話が多くて苦手でしたが、これは無駄を全部そぎ落としてくれます。

@BeFreed user

博士課程の仕上げの段階で、なじみのない資料を大量に読む必要があります… BeFreed ならプロンプトを入力するだけで、アプリが資料を探して音声ポッドキャストを作ってくれます。BeFreed のほうが NotebookLM よりも流れがスムーズだと感じます。

@Brad

朝食を作りながら、散歩しながら、通勤しながら聞くものを YouTube でよく探していましたが、BeFreed は広告も余計な話もなしで、もっと的を絞った聞き方をさせてくれます！

@BeFreed user

このプラットフォームの一番の魅力は、その万能さです。扱えないテーマは文字どおりひとつもありません。何を投げても応えてくれます… 制限がまったくないのに約束をきちんと果たしてくれる学習ツールには、なかなか出会えません。

@jayallen

BeFreed は素晴らしいです。使いやすいデザインのおかげで、操作に迷う時間が減り、学ぶ時間が増えました。オーディオブック、ポッドキャスト、学習プランの組み合わせは天才的で、毎日の習慣がすっかり変わりました。

@BeFreed user

最初はイタリア語でポッドキャストを作る方法を理解するのに少し時間がかかりましたが、わかった瞬間、最高でした！どんなテーマでも説明してもらえて、しかもとても賢く、うまく話してくれます！

@matteo77

BeFreed は毎日使うオーディオブックアプリになりました… 一番気に入っているのは、自分のテキストを入れると、外出先でも聞ける音声にしてくれるところです。

@kotanzu1

役立つ情報やアイデアを 8〜15 分のポッドキャスト風音声にぎゅっとまとめて聞けるのが最高です。ポッドキャストは余計な話が多くて苦手でしたが、これは無駄を全部そぎ落としてくれます。

@BeFreed user

博士課程の仕上げの段階で、なじみのない資料を大量に読む必要があります… BeFreed ならプロンプトを入力するだけで、アプリが資料を探して音声ポッドキャストを作ってくれます。BeFreed のほうが NotebookLM よりも流れがスムーズだと感じます。

@Brad

朝食を作りながら、散歩しながら、通勤しながら聞くものを YouTube でよく探していましたが、BeFreed は広告も余計な話もなしで、もっと的を絞った聞き方をさせてくれます！

@BeFreed user

このプラットフォームの一番の魅力は、その万能さです。扱えないテーマは文字どおりひとつもありません。何を投げても応えてくれます… 制限がまったくないのに約束をきちんと果たしてくれる学習ツールには、なかなか出会えません。

@jayallen

BeFreed は素晴らしいです。使いやすいデザインのおかげで、操作に迷う時間が減り、学ぶ時間が増えました。オーディオブック、ポッドキャスト、学習プランの組み合わせは天才的で、毎日の習慣がすっかり変わりました。

@BeFreed user

最初はイタリア語でポッドキャストを作る方法を理解するのに少し時間がかかりましたが、わかった瞬間、最高でした！どんなテーマでも説明してもらえて、しかもとても賢く、うまく話してくれます！

@matteo77

BeFreed は毎日使うオーディオブックアプリになりました… 一番気に入っているのは、自分のテキストを入れると、外出先でも聞ける音声にしてくれるところです。

@kotanzu1

BeFreedがウェブ上でどのように話題になっているかをもっと見る

今すぐ学習の旅を始めよう

第4章

『ニセ科学の見分け方』の要約

『ニセ科学の見分け方』の要約の概要

『ニセ科学の見分け方』の要約をさまざまな学習スタイルで探る

The Blurred Lines of Scientific Legitimacy

The Dynamic Boundaries of Scientific Knowledge

聴きながら、すべての言葉を目で追えます

The Social Construction of Scientific Authority

Pathways From Fringe to Mainstream

『ニセ科学の見分け方』の要約をもっと深く楽しむ

The Persistence of Pseudoscience

The Historical Contingency of Scientific Consensus

聴きながら、すべての言葉を目で追えます

Power Dynamics in Knowledge Production

Navigating the Mainstream-Fringe Boundary Today

『ニセ科学の見分け方』の要約をもっと深く楽しむ

Science as a Human Enterprise

『ニセ科学の見分け方』の要約を最後まで読み終えました

『ニセ科学の見分け方』の要約の主要テーマ

『ニセ科学の見分け方』の要約の名言集

『ニセ科学の見分け方』の要約の登場人物

著者について

ニセ科学の見分け方の要約をダウンロード

他のユーザーのお気に入り

『ニセ科学の見分け方』の要約についてのよくある質問

What is On the Fringe by Michael D. Gordin about?

Who should read On the Fringe?

Is On the Fringe worth reading?

What examples of pseudoscience does Michael D. Gordin analyze?

もっと見る

BeFreedは好奇心旺盛な仲間が集うグローバルコミュニティ

『ニセ科学の見分け方』の要約をさまざまな学習スタイルで探る

The Blurred Lines of Scientific Legitimacy

The Dynamic Boundaries of Scientific Knowledge

聴きながら、すべての言葉を目で追えます

The Social Construction of Scientific Authority

Pathways From Fringe to Mainstream

『ニセ科学の見分け方』の要約をもっと深く楽しむ

The Persistence of Pseudoscience

The Historical Contingency of Scientific Consensus

聴きながら、すべての言葉を目で追えます

Power Dynamics in Knowledge Production

Navigating the Mainstream-Fringe Boundary Today

『ニセ科学の見分け方』の要約をもっと深く楽しむ

Science as a Human Enterprise

『ニセ科学の見分け方』の要約を最後まで読み終えました

他のユーザーのお気に入り

もっと見る