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Author Information: Mirko Farina, King’s College London,

Farina, Mirko. “Exploring the Concepts of Science in 166 Pages: Reviewing Nigel Sanitt.” Social Epistemology Review and Reply Collective 8, no. 4 (2019): 28-33.

The pdf of the article gives specific page references. Shortlink:

A wax statue of Isaac Newton, deceased.
Image by Nadia via Flickr / Creative Commons


In Culture, Curiosity and Communication in Scientific Discovery, scientist Nigel Sanitt develops an empirically-informed, highly interdisciplinary, and richly holistic account of scientific progress and discovery. By drawing upon a vast range of historical and contemporary sources, Sanitt provides important, original insights to understand the nature of scientific reasoning and how it is practised.

The book contains a useful introduction in which Sanitt highlights the focal points of his project and 15 short chapters in which he further develops his positive proposal (the idea that the foundations of science are built on sand and that scientific theories are frameworks we use to model nature). The book also considers how meaning is created in science and argues that science is deeply grounded in questions.

In the first part of this critical notice I briefly summarise the book’s content. I then turn my attention to one of the most important theoretical tensions underlying it: the relationship between science and philosophy. I investigate this tension,  critically assess the claim that philosophy is dead (Hawking, 2010), and in agreement with Sanitt conclude that a synergetic relationship between science and philosophy is not only desirable but also mutually beneficial.

A Fast Walk Through Vast Territory

In chapters 1 and 2, Sanitt sets up the scene and looks at the role of truth in science (pp.2-6). He then goes on to discuss the function (prediction) of scientific theories (pp. 18-22) and their search for invariance (pp. 25-26). Sanitt also aptly reviews recent progresses in philosophy of science (pp.7-14) and convincingly argues that the foundations of science are built on sand. Let me notice here that the philosophical grounding of this latter set of ideas could have been enriched by discussing the work of Poincaré, Duhem, Lakatos and Feyerabend.

In chapters 3 and 4, Sanitt discusses two theories [the integrationist theory of meaning defended by Harris (1981); and the theory of problematology pioneered by Meyer 2014)] that play a pivotal role in the development of his book. In particular, the former (pp. 41-43) provides Sanitt with the conceptual palette for the latter, which he uses to argue that science is an answer-generating dynamic enterprise (p.53).

Chapters 5 and 6 focus on the idea that scientific theories are frameworks, networks with links and nodes (p.70), that we use to model nature. Here Sanitt gives the mathematical background to describe these networks using graph theory (pp.72-79).

Chapter 7 focuses on scientific communication and looks, in particular, at how scientists interact with the media, the public, the politicians, with scientific organisations, and with each other (pp.82-84). While the need for more public engagement is stressed, the picture that emerges is one where scientists are often forced, by lack of research funding, ‘to actively engage with all these actors in outreach, lobbying, publicity, and policy briefing’ (p.85). This highlights the political, economical and socio-cultural dimension of contemporary scientific practice, which – it is argued- may threaten the independence of science.

The central chapters of the book focus on the relation between science and literature (ch. 8), science and religion (ch. 9), science and art (ch. 10), and science and history (ch.11). Particularly interesting is chapter 10 where Sanitt looks at whether beauty (understood as Pythagorean harmony) can play a role in science (pp.105-107) and points out that many scientists were also successful artists (e.g. Feynman), musicians (e.g. Einstein, Plack, Heisenberg), or writers (e.g. Hoyle, Oppenheimer, Snow).

Chapters 12 looks at the relation between science and culture. Here Sanitt demonstrates that science -as an intellectual and practical pursuit- is deeply rooted and inexorably tied in with our culture (p.121). He also cogently argues for the crucial importance of science in our society (p.122).

Chapter 13 focuses on artificial intelligence and on consciousness (p.131).  Sanitt claims that in explaining these phenomena, ‘separating out meaning, thinking, embodiment, perception and decision making from each other does not work’ (p.135). He thus seems to endorse, albeit not stated, a view (Clark 1998) that involves mind, body and environment as direct and equal partners in the making of human cognitive behaviour.

In chapter 14 Sanitt looks at the relation between science and ethics. He reviews philosophical works on moral and ethical behaviour (pp.137-139), discusses examples of misconduct and professional malpractice in science (pp.141-142), and calls for the development of more rigorous enforcement measures to fight them (p.143).

Chapter 15 focuses on the relation between science and education, discusses gender anomalies in science (p.151) and calls for innovations (adoption of ebooks, contextualisation of textbooks) in educational practices (pp.152-153).

In chapter 16 Sanitt summarises what he has achieved in the book (pp.155-160) and concludes by condemning the idea that philosophy and science should be separated. He writes: ‘a lack of critical thinking skills leads to intellectual impoverishment and in the end, to poor science. There are many universities that include philosophy courses in their undergraduate science curriculum – this is to be encouraged’ (p.162).

Having described the contents of the monograph, I now briefly turn to what I believe is the most interesting theoretical tension underlying it; the relation between science and philosophy.

Philosophy and Science: A Sometimes Sublime Dynamic

The relation between science and philosophy is intricate and highly complicated, and is one that I can only start touching upon here. Roughly speaking we can say that until perhaps the 19th century, there was no real distinction between scientists and philosophers, and many of the greatest scientists were also great philosophers. Newton’s masterpiece, Philosophiae Naturalis Principia Mathematica (Newton, 1687/1999) is imbued with philosophical assumptions and is a paradigmatic example of this deep relation.

The gap between science and philosophy started to widen at the beginning of the last century when scientific specialisation drove a wedge between the two disciplines (Philipp, 1957). The gap became even more prominent over the last 50 years or so with the advent of the age of hyper-specialisation.

On the one hand, with the development of new technological breakthroughs, many scientists started to amass enormous amounts of empirical data (especially in disciplines like neuroscience, physics, and psychology) often forgetting (sometimes deliberately ignoring) the theoretical interpretation of such data; on the other hand, many philosophers failed to understand such developments and retreated to their ivory towers into the study of human affairs, leaving the study of nature to natural scientists and often deliberately refusing any interaction with them (this process is brilliantly summarised by Snow 1959/2012).

There were remarkable exceptions on both sides, of course. Einstein’s work (1935) demonstrated that there is a genuine interaction between science and philosophy. Heisenberg once said ‘my mind was formed by studying philosophy, Plato and that sort of thing’ (Buckley and Peat, 1996, p.6).

Russell (1914) argued that the difference between philosophy and science is of the degree not of kind.  Dewey (1938/1991) asserted that the roots of philosophy and science are the same. Poincaré (1905) and Duhem (1908/1991) spent their whole lives developing a ‘scientific philosophy’.

There are also numerous examples in the history of science that shows this deep mutual dependence and profound interaction. For example, Kepler and Sommerfeld were both inspired by Pythagorean ideas in developing their models of the harmonies of the solar system and of the atom (de Haro, 2013).

Non-Locality: Philosophy as a Guide for Quantum Physics

Next, however, I focus on the development of quantum mechanics and discuss a key moment in its history that shows how physical progress crucially depended on asking the right philosophical questions. The discussion of this case study demonstrates that the philosophical debate that took place during those years acted as a positive, driving force that pushed the development of science further.

In 1927, conflicting views on quantum physics started to crystallize. At the 5th Solvay conference in Brussels, Heisenberg declared quantum mechanics to be a ‘closed theory, whose fundamental physical and mathematical assumptions are no longer susceptible of any modification’ (Bacciagaluppi and Valentini, 2009, p. 437). With that assertion, Heisenberg voiced the feelings and the convinctions of many of his colleagues (among them Bohr, Pauli, and Dirac) also present at the conference.

Einstein, however, did not agree with Heisenberg. He believed that the so-called Copenhagen interpretation of quantum mechanics – the view that Heisenberg was indirectly defending —had philosophical implications (such as the lack of determinacy in physical quantities and events) that seemed undesirable.

Thus in 1935, with some of his colleagues (Podolsky, and Rosen), Einstein developed a famous thought experiment (known as EPR), which demonstrated the entanglement of two particles located at long distances and implied faster-than-light interactions. Since this explicitly contradicted Einstein’s theory of relativity, quantum mechanics had to be an incomplete theory and the Copenhagen interpretation had to be wrong.

With this thought experiment Einstein wanted to arrive at a theory that fullfilled some ontological desiderata. More precisely, he wanted the theory to accurately describe the real world while incorporating the requirement that physics should be independent of the observer.

While the study of paradoxes has always played an important role in physics, the formulation of the EPR paradox required the development of a neat philosophical stance about the principles and methods that were deemed to be appropriate and valuable for the development of the theory. Thus, this example paradigmatically shows that Einstein’s quest was philosophical in character and therefore that philosophical ideas indeed can play a major role in the development of scientific theories.

Contemporary Alienation

Recently, however, Stephen Hawking declared (2010) the official ‘death’ of philosophy (for similar arguments see also Weinberg, 1992 , for a review of similar arguments see Kerr, 2018). Commenting on the nature of reality, Hawking wrote: ‘traditionally these are questions for philosophy, but philosophy is dead. Philosophy has not kept up with modern developments in science, particularly physics. Scientists have become the bearers of the torch of discovery in our quest for knowledge’ (Hawking 2010, p. 5).

To be fair to Hawking, his remark seems to be about the current status of philosophy. It does not seem to be a claim about philosophy as a discipline and including all its history (as some critics of Hawking have recently argued). Also, when Hawking made that provocative claim, he probably referred to just metaphysics, the branch of philosophy that aspires to the most general understanding of nature – not to all philosophy.

Now, I don’t want to enter here the discussion of whether all metaphysics should be naturalised (Ladyman et al., 2007). But having given Hawking the fairest possible understanding, I would still like to point out that his view of contemporary philosophy is partial, misleading, and ill-informed.

This is because Hawking, when making that claim, ignored that nowadays there is lots of philosophy born out of metaphysics (philosophy of mind and cognitive science, philosophy of psychology, philosophy of neuroscience) that is deeply grounded in the sciences. He also ignored that there are many areas of research in philosophy (e.g. embodied cognition) that are inspired by scientific findings and that, in turn, guide scientific research. More importantly, he ignored that there are large groups of empirically-informed philosophers (I am one of them, for what that matters), who are increasing leaving their armchairs and ivory towers to work in close contact with scientists.

Here Sanitt, who is himself a scientist but one that is not crusading against philosophy, does (unlike Hawking) a good job in recognising the fundamental importance of philosophical thinking to scientific reasoning. He writes: ‘I believe that science research at the highest level is adversely affected by the lack of philosophical awareness and training for scientists’ (p.59).

Sanitt also recognises that ‘there are limits to the denial of philosophical import to science, which results in paralysis’ (p. 14) and goes on to condemn the process that has led to the fragmentation and alienation of science from philosophy: ‘science has been separated horizontally…from within by too much specialisation…..This separation … is also vertical in the sense that science is seen as a completely different kind of entity from areas dubbed the arts or literature. This kind of separation is just as damaging and just as specious’ (p.14).

The picture that Sanitt draws is therefore one where philosophy directly interacts with science on a number of different levels. In particular, Sanitt believes: i).that the way science is taught and practised should not be immune from philosophical speculations (p.12); ii).that philosophical theorising should play an instrumental role in raising the right questions (pp.52-55) that science aims to answer (pp.64-70); and iii).that philosophy should help scientists interfacing with the wider, non-academic, world (pp. 80-86). Sanitt sees in this collaboration the roots of scientific success and thus argues, pace Hawking, that a synergetic partnership between science and philosophy is highly desirable.


Culture, Curiosity and Communication in Scientific Discovery shines a light through the mist of scientific research. It convincingly makes the case that science is driven by questions that often have a philosophical nature. The book also demonstrates that the foundations of science are built on sand and that the search for truth is always elusive.

The volume is thorough and does not at all shy away from conceptual complexity – quite the opposite.  The impressive sheer wealth and breadth of information presented makes the volume worthwhile. The prose is engaging, the style is captivating, the argument is coherently presented.

Structurally, however, I question the author’s decision of having 16 short chapters, each containing a lot of different subsections (often trying to summarise complex debates in a page or two). Occasionally, this results in having half-backed subsections (e.g. ‘free will’, p.99), which do not fully capture the nuances and the complexities of the issues debated. This sometimes interrupts the flow of the argumentation and prevents the reader from understanding the main point being made.

Nevertheless, this is a much needed (and welcomed) contribution to the field. A must read for scientists and philosophers, and more generally, for all those who are interested in understanding how scientific theories are constructed and verified.

Contact details: 


Bacciagaluppi, Guido, and Antony Valentini. Quantum theory at the crossroads: reconsidering the 1927 Solvay conference. Cambridge, UK: Cambridge University Press, 2009.

Buckley, Paul, and F. David Peat. Glimpsing reality: Ideas in physics and the link to biology. Toronto, ON: University of Toronto Press, 1996.

Clark, Andy. Being there: Putting brain, body, and world together again. Cambridge, MA: MIT Press, 1998.

de Haro, Sebastian. “Science and Philosophy: A Love-Hate Relationship.” arXiv preprint arXiv:1307.1244 (2013).

Dewey, John. Logic, the theory of inquiry. Carbondale: IL, Southern University Press, 1938/1991.

Duhem, Pierre Maurice Marie. The aim and structure of physical theory. Vol. 13. Princeton, NJ: Princeton University Press, 1908/1991.

Einstein, Albert, Boris Podolsky, and Nathan Rosen. “Can quantum-mechanical description of physical reality be considered complete?.” Physical review 47, no. 10 (1935): 777.

Hawking, Stephen. The grand design. London, UK: Random House Digital, Inc., 2010.

Kerr, Eric. “A Hermeneutic of Non-Western Philosophy.” Social Epistemology Review and Reply Collective 7: 1-6, 2018

Ladyman, James, Don Ross, David Spurrett, and John Collier. Every thing must go: Metaphysics naturalized. Oxford, UK: Oxford University Press, 2007.

Newton, Isaac. The Principia: mathematical principles of natural philosophy. Berkeley: CA: University of California Press, 1687/1999.

Philipp, Frank. Philosophy of science: The link between science and philosophy. Englewood Cliffs, NJ: Prentice-Hall, Inc., 1957

Poincaré, Henri. Science and hypothesis. Science Press, 1905.

Russell, Bertrand. Our Knowledge of the External World as a Field for Scientific Method in Philosophy. Chicago, IL and London, UK: Open Court Publishing, 1914.

Snow, Charles Percy. The two cultures. Cambridge, UK: Cambridge University Press, 1959/2012.

Weinberg, Steven. Dream of a final theory, the scientist’s search for the ultimate laws of nature. New York, NYC: Vintage Books, (1992).

Author Information: Nuria Anaya-Reig, Universidad Rey Juan Carlos,

Anaya-Reig, Nuria. “Teorías Implícitas del Investigador: Un Campo por Explorar Desde la Psicología de la Ciencia.” Social Epistemology Review and Reply Collective 7, no. 11 (2018): 36-41.

The pdf of the article gives specific page references. Shortlink:

Image by Joan via Flickr / Creative Commons


This article is a Spanish-language version of Nuria Anaya-Reig’s earlier contribution, written by the author herself:

Anaya-Reig, Nuria. “Implicit Theories Influencing Researchers: A Field for the Psychology of Science to Explore.” Social Epistemology Review and Reply Collective 7, no. 11 (2018): 25-30.

¿Qué concepciones tienen los investigadores sobre las características que debe reunir un estudiante para ser considerado un potencial buen científico? ¿En qué medida influyen esas creencias en la selección de candidatos? Estas son las preguntas fundamentales que laten en el trabajo de Caitlin Donahue Wylie (2018). Mediante un estudio cualitativo de tipo etnográfico, se entrevista a dos profesores de ingeniería en calidad de investigadores principales (IP) y a estudiantes de sendos grupos de doctorado, la mayoría graduados, como investigadores noveles. En total, la muestra es de 27 personas.

Los resultados apuntan a que, entre este tipo de investigadores, es común creer que el interés, la asertividad y el entusiasmo por lo que se estudia son indicadores de un futuro buen investigador. Además, los entrevistados consideran que el entusiasmo está relacionado con el deseo de aprender y la ética en el trabajo. Finalmente, se sugiere una posible exclusión no intencional en la selección de investigadores a causa de la aplicación involuntaria de sesgos por parte del IP, relativa a la preferencia de características propias de grupos mayoritarios (tales como etnia, religión o sexo), y se proponen algunas ideas para ayudar a minimizarlos.

Teorías Implícitas en los Sótanos de la Investigación

En esencia, el trabajo de Wylie (2018) muestra que el proceso de selección de nuevos investigadores por parte de científicos experimentados se basa en teorías implícitas. Quizás a simple vista puede parecer una aportación modesta, pero la médula del trabajo es sustanciosa y no carece de interés para la Psicología de la Ciencia, al menos por tres razones.

Para empezar, porque estudiar tales cuestiones constituye otra forma de aproximarse a la compresión de la psique científica desde un ángulo distinto, ya que estudiar la psicología del científico es uno de los ámbitos de estudio centrales de esta subdisciplina (Feist 2006). En segundo término, porque, aunque la pregunta de investigación se ocupa de una cuestión bien conocida por la Psicología social y, en consecuencia, aunque los resultados del estudio sean bastante previsibles, no dejan de ser nuevos datos y, por tanto, valiosos, que enriquecen el conocimiento teórico sobre las ideas implícitas: es básico en ciencia, y propio del razonamiento científico, diferenciar teorías de pruebas (Feist 2006).

En último lugar, porque la Psicología de la Ciencia, en su vertiente aplicada, no puede ignorar el hecho de que las creencias implícitas de los científicos, si son erróneas, pueden tener su consiguiente reflejo negativo en la población de investigadores actual y futura (Wylie 2018).

Ya Santiago Ramón y Cajal, en su faceta como psicólogo de la ciencia (Anaya-Reig and Romo 2017), reflexionaba sobre este asunto hace más de un siglo. En el capítulo IX, “El investigador como maestro”, de su obra Reglas y consejos sobre investigación científica (1920) apuntaba:

¿Qué signos denuncian el talento creador y la vocación inquebrantable por la indagación científica?

Problema grave, capitalísimo, sobre el cual han discurrido altos pensadores e insignes pedagogos, sin llegar a normas definitivas. La dificultad sube de punto considerando que no basta encontrar entendimientos perspicaces y aptos para las pesquisas de laboratorio sino conquistarlos definitivamente para el culto de la verdad original.

Los futuros sabios, blanco de nuestros desvelos educadores, ¿se encuentran por ventura entre los discípulos más serios y aplicados, acaparadores de premios y triunfadores en oposiciones?

Algunas veces, sí, pero no siempre. Si la regla fuera infalible, fácil resultara la tarea del profesor, bastaríale dirigirse a los premios extraordinarios de la licenciatura y a los números primeros de las oposiciones a cátedras. Mas la realidad se complace a menudo en burlar previsiones y malograr esperanzas. (Ramón y Cajal 1920, 221-222)

A Vueltas con las Teorías Implícitas

Recordemos brevemente que las teorías ingenuas o implícitas son creencias estables y organizadas que las personas hemos elaborado intuitivamente, sin el rigor del método científico. La mayoría de las veces se accede a su contenido con mucha dificultad, ya que la gente desconoce que las tiene, de ahí su nombre. Este hecho no solo dificulta una modificación del pensamiento, sino que lleva a buscar datos que confirmen lo que se piensa, es decir, a cometer sesgos confirmatorios (Romo 1997).

Las personas vamos identificando y organizando las regularidades del entorno gracias al aprendizaje implícito o incidental, basado en el aprendizaje asociativo, pues necesitamos adaptarnos a las distintas situaciones a las que nos enfrentamos. Elaboramos teorías ingenuas que nos ayuden a comprender, anticipar y manejar de la mejor manera posible las variadas circunstancias que nos rodean. Vivimos rodeados de una cantidad de información tan abrumadora, que elaborar teorías implícitas, aprendiendo qué elementos tienden a presentarse juntos, constituye una forma muy eficaz de hacer el mundo mucho más predecible y controlable, lo que, naturalmente, incluye el comportamiento humano.

De hecho, el contenido de las teorías implícitas es fundamentalmente de naturaleza social (Wegner and Vallacher 1977), como muestra el hecho de que buena parte de ellas pueden agruparse dentro las llamadas Teorías Implícitas de la Personalidad (TIP), categoría a la que, por cierto, bien pueden adscribirse las creencias de los investigadores que nos ocupan.

Las TIP se llaman así porque su contenido versa básicamente sobre cualidades personales o rasgos de personalidad y son, por definición, idiosincráticas, si bien suele existir cierta coincidencia entre los miembros de un mismo grupo social.

Entendidas de modo amplio, pueden definirse como aquellas creencias que cada persona tiene sobre el ser humano en general; por ejemplo, pensar que el hombre es bueno por naturaleza o todo lo contrario. En su acepción específica, las TIP se refieren a las creencias que tenemos sobre las características personales que suelen presentarse juntas en gente concreta. Por ejemplo, con frecuencia presuponemos que un escritor tiene que ser una persona culta, sensible y bohemia (Moya 1996).

Conviene notar también que las teorías implícitas se caracterizan frente a las científicas por ser incoherentes y específicas, por basarse en una causalidad lineal y simple, por componerse de ideas habitualmente poco interconectadas, por buscar solo la verificación y la utilidad. Sin embargo, no tienen por qué ser necesariamente erróneas ni inservibles (Pozo, Rey, Sanz and Limón 1992). Aunque las teorías implícitas tengan una capacidad explicativa limitada, sí tienen capacidad descriptiva y predictiva (Pozo Municio 1996).

Algunas Reflexiones Sobre el Tema

Científicos guiándose por intuiciones, ¿cómo es posible? Pero, ¿por qué no? ¿Por qué los investigadores habrían de comportarse de un modo distinto al de otras personas en los procesos de selección? Se comportan como lo hacemos todos habitualmente en nuestra vida cotidiana con respecto a los más variados asuntos. Otra manera de proceder resultaría para cualquiera no solo poco rentable, en términos cognitivos, sino costoso y agotador.

A fin de cuentas, los investigadores, por muy científicos que sean, no dejan de ser personas y, como tales, buscan intuitivamente respuestas a problemas que, si bien condicionan de modo determinante los resultados de su labor, no son el objeto en sí mismo de su trabajo.

Por otra parte, tampoco debe sorprender que diferentes investigadores, poco o muy experimentados, compartan idénticas creencias, especialmente si pertenecen al mismo ámbito, pues, según se ha apuntado, aunque las teorías implícitas se manifiestan en opiniones o expectativas personales, parte de su contenido tácito es compartido por numerosas personas (Runco 2011).

Todo esto lleva, a su vez, a hacer algunas otras observaciones sobre el trabajo de Wylie (2018). En primer lugar, tratándose de teorías implícitas, más que sugerir que los investigadores pueden estar guiando su selección por un sesgo perceptivo, habría que afirmarlo. Como se ha apuntado, las teorías implícitas operan con sesgos confirmatorios que, de hecho, van robusteciendo sus contenidos.

Otra cuestión es preguntarse con qué guarda relación dicho sesgo: Wylie (2018) sugiere que está relacionado con una posible preferencia por las características propias de los grupos mayoritarios a los que pertenecen los IP basándose en algunos estudios que han mostrado que en ciencia e ingeniería predominan hombres, de raza blanca y de clase media, lo que puede contribuir a recibir mal a aquellos estudiantes que no se ajusten a estos estándares o que incluso ellos mismos abandonen por no sentirse cómodos.

Sin duda, esa es una posible interpretación; pero otra es que el sesgo confirmatorio que muestran estos ingenieros podría deberse a que han observado esos rasgos las personas que han  llegado a ser buenas en su disciplina, en lugar de estar relacionado con su preferencia por interactuar con personas que se parecen física o culturalmente a ellos.

Es oportuno señalar aquí nuevamente que las teorías implícitas no tienen por qué ser necesariamente erróneas, ni inservibles (Pozo, Rey, Sanz and Limón 1992). Es lo que ocurre con parte de las creencias que muestra este grupo de investigadores: ¿acaso los científicos, en especial los mejores, no son apasionados de su trabajo?, ¿no dedican muchas horas y mucho esfuerzo a sacarlo adelante?, ¿no son asertivos? La investigación ha establecido firmemente (Romo 2008) que todos los científicos creativos muestran sin excepción altas dosis de motivación intrínseca por la labor que realizan.

Del mismo modo, desde Hayes (1981) sabemos que se precisa una media de 10 años para dominar una disciplina y lograr algo extraordinario. También se ha observado que muestran una gran autoconfianza y que son espacialmente arrogantes y hostiles. Es más, se sabe que los científicos, en comparación con los no científicos, no solo son más asertivos, sino más dominantes, más seguros de sí mismos, más autónomos e incluso más hostiles (Feist 2006). Varios trabajos, por ejemplo, el de Feist y Gorman (1998), han concluido que existen diferencias en los rasgos de personalidad entre científicos y no científicos.

Pero, por otro lado, esto tampoco significa que las concepciones implícitas de la gente sean necesariamente acertadas. De hecho, muchas veces son erróneas. Un buen ejemplo de ello es la creencia que guía a los investigadores principales estudiados por Wylie para seleccionar a los graduados en relación con sus calificaciones académicas. Aunque dicen que las notas son un indicador insuficiente, a continuación matizan su afirmación: “They believe students’ demonstrated willingness to learn is more important, though they also want students who are ‘bright’ and achieve some ‘academic success.’” (2018, 4).

Sin embargo, la evidencia empírica muestra que ni las puntuaciones altas en grados ni en pruebas de aptitud predicen necesariamente el éxito en carreras científicas (Feist 2006) y que el genio creativo no está tampoco necesariamente asociado con el rendimiento escolar extraordinario y, lo que es más, numerosos genios han sido estudiantes mediocres (Simonton 2006).


La Psicología de la Ciencia va acumulando datos para orientar en la selección de posibles buenos investigadores a los científicos interesados: véanse, por ejemplo, Feist (2006) o Anaya-Reig (2018). Pero, ciertamente, a nivel práctico, estos conocimientos serán poco útiles si aquellos que más partido pueden sacarles siguen anclados a creencias que pueden ser erróneas.

Por tanto, resulta de interés seguir explorando las teorías implícitas de los investigadores en sus diferentes disciplinas. Su explicitación es imprescindible como paso inicial, tanto para la Psicología de la Ciencia si pretende que ese conocimiento cierto acumulado tenga repercusiones reales en los laboratorios y otros centros de investigación, como para aquellos científicos que deseen adquirir un conocimiento riguroso sobre las cualidades propias del buen investigador.

Todo ello teniendo muy presente que la naturaleza implícita de las creencias personales dificulta el proceso, porque, como se ha señalado, supone que el sujeto entrevistado desconoce a menudo que las posee (Pozo, Rey, Sanz and Limón 1992), y que su modificación requiere, además, un cambio de naturaleza conceptual o representacional (Pozo, Scheuer, Mateos Sanz and Pérez Echeverría 2006).

Por último, tal vez no sea razonable promover entre todos los universitarios de manera general ciertas habilidades, sin tener en consideración que reúnen determinados atributos. Por obvio que sea, hay que recordar que los recursos educativos, como los de cualquier tipo, son necesariamente limitados. Si, además, sabemos que solo un 2% de las personas se dedican a la ciencia (Feist 2006), quizás valga más la pena poner el esfuerzo en mejorar la capacidad de identificar con tino a aquellos que potencialmente son válidos. Otra cosa sería como tratar de entrenar para cantar ópera a una persona que no tiene cualidades vocales en absoluto.

Contact details:


Anaya-Reig, N. 2018. “Cajal: Key Psychological Factors in the Self-Construction of a Genius.” Social Epistemology. doi: 10.1080/02691728.2018.1522555.

Anaya-Reig, N., and M. Romo. 2017. “Cajal, Psychologist of Science.” The Spanish Journal of Psychology 20: e69. doi: 10.1017/sjp.2017.71.

Feist, G. J. 2006. The Psychology of Science and the Origins of the Scientific Mind. New Haven, CT: Yale University Press.

Feist, G. J., and M. E. Gorman. 1998. “The Psychology of Science: Review and Integration of a Nascent Discipline.” Review of General Psychology 2 (1): 3–47. doi: 10.1037/1089-2680.2.1.3.

Hayes, J. R. 1981. The Complete Problem Solver. Philadelphia, PA: Franklin Institute Press.

Moya, M. 1996. “Percepción social y personas.” In Psicología social, 93-119. Madrid, Spain: McGraw-Hill.

Pozo Municio, J. I. 1996. Aprendices y maestros. La nueva cultura del aprendizaje. Madrid, Spain: Alianza.

Pozo, J. I., M. P. Rey, A. Sanz, and M. Limón. 1992. “Las ideas de los alumnos sobre la ciencia como teorías implícitas.” Infancia y Aprendizaje 57: 3-22.

Pozo, J. I., N. Scheuer, M. M. Mateos Sanz, and M. P. Pérez Echeverría. 2006. “Las teorías implícitas sobre el aprendizaje y la enseñanza.” In Nuevas formas de pensar la enseñanza y el aprendizaje: las concepciones de profesores y alumnos, 95-134. Barcelona, Spain: Graó.

Ramón y Cajal, S. 1920. Reglas y consejos sobre investigación científica. (Los tónicos de la voluntad). 5th ed. Madrid, Spain: Nicolás Moya.

Ramón y Cajal, S. 1999. Advice for a Young Investigator, translated by N. Swanson and L. W. Swanson. Cambridge, MA: The MIT Press.

Romo, M. 1997. Psicología de la creatividad. Barcelona, Spain: Paidós.

Romo, M. 2008. Epistemología y Psicología. Madrid, Spain: Pirámide.

Runco, M. 2011. “Implicit theories.” In Encyclopaedia of Creativity, edited by M. Runco and S. R. Pritzker, 644-646. 2nd ed. Elsevier.

Simonton, D. K. 2006. “Creative genius, Knowledge, and Reason. The Lives and Works of Eminents Creators.” In Creativity and reason in cognitive development, edited by J. C. Kaufman and J. Baer, 43-59. New York, NY: Cambridge University Press.

Wegner, D. M., and R. R, Vallacher. 1977. Implicit Psychology. An introduction to Social Cognition. New York, NY: Oxford University Press.

Wylie, C. D. 2018. “‘I Just Love Research’: Beliefs About What Makes Researchers Successful.” Social Epistemology 32 (4): 262-271, doi: 10.1080/02691728.2018.1458349.

Author Information: Steve Fuller, University of Warwick,

Fuller, Steve. “‘China’ As the West’s Other in World Philosophy.” Social Epistemology Review and Reply Collective 7, no. 11 (2018): 1-11.

The pdf of the article gives specific page references. Shortlink:

A man practices Taijiquan at the Kongzi Temple in Nanjing.
Image by Slices of Light via Flickr / Creative Commons


This essay was previously published in the Journal of World Philosophy, their Summer 2018 issue.

Bryan Van Norden’s Taking Back Philosophy: A Multicultural Manifesto draws on his expertise in Chinese philosophy to launch a comprehensive and often scathing critique of contemporary Anglo-American philosophy. I focus on the sense in which “China” figures as a “non-Western culture” in Van Norden’s argument. Here I identify an equivocation between what I call a “functional” and a “substantive” account of culture.

I argue that Van Norden, like perhaps most others who have discussed Chinese philosophy, presupposes a “functional” conception, whereby the relevant sense in which “China” matters is exactly as “non-Western,” which ends up incorporating some exogenous influences such as Indian Buddhism but not any of the Western philosophies that made major inroads in the twentieth century. I explore the implications of the functional/substantive distinction for the understanding of cross-cultural philosophy generally.

Dragging the West Into the World

I first ran across Bryan Van Norden’s understanding of philosophy from a very provocative piece entitled “Why the Western Philosophical Canon Is Xenophobic and Racist,”[1]  which trailed the book now under review. I was especially eager to review it because I had recently participated in a symposium in the Journal of World Philosophies that discussed Chinese philosophy—Van Norden’s own area of expertise—as a basis for launching a general understanding of world philosophy.[2]

However, as it turns out, most of the book is preoccupied with various denigrations of philosophy in contemporary America, from both inside and outside the discipline. The only thing I will say about this aspect of the book is that, even granting the legitimacy of Van Norden’s complaints, I don’t think that arguments around some “ontological” conception of what philosophy “really is” will resolve the matter because these can always be dismissed as self-serving and question-begging.

What could make a difference is showing that a broader philosophical palette would actually make philosophy graduates more employable in an increasingly globalized world. Those like Van Norden who oppose the “Anglo-analytic hegemony” in contemporary philosophy need to argue explicitly that it results in philosophy punching below its weight in terms of potential impact. That philosophy departments of the most analytic sort continue to survive and even flourish, and that their students continue to be employed, should be presented as setting a very low standard of achievement.

After all, philosophy departments tend to recruit students with better than average qualifications, while the costs for maintaining those departments remain relatively low. In contrast, another recent book that raises similar concerns to Van Norden’s, Socrates Tenured (Frodeman and Briggle 2016),[3] is more successful in pointing to extramural strategies for philosophy to pursue a more ambitious vision of general societal relevance.

Challenging How We Understand Culture Itself

But at its best, Taking Back Philosophy forces us to ask: what exactly does “culture” mean in “multicultural” or “cross-cultural” philosophy? For Van Norden, the culture he calls “China” is the exemplar of a non-Western philosophical culture. It refers primarily—if not exclusively—to those strands of Chinese thought associated with its ancient traditions. To be sure, this arguably covers everything that Chinese scholars and intellectuals wrote about prior to the late nineteenth century, when Western ideas started to be regularly discussed. It would then seem to suggest that “China” refers to the totality of its indigenous thought and culture.

But this is not quite right, since Van Norden certainly includes the various intellectually productive engagements that Buddhism as an alien (Indian) philosophy has had with the native Confucian and especially Daoist world-views. Yet he does not seem to want to include the twentieth-century encounters between Confucianism and, say, European liberalism and American pragmatism in the Republican period or Marxism in the Communist period. Here he differs from Leigh Jenco (2010),[4] who draws on the Republican Chinese encounter with various Western philosophies to ground a more general cross-cultural understanding of philosophy.

It would appear that Van Norden is operating with a functional rather than substantive conception of “China” as a philosophical culture. In other words, he is less concerned with all the philosophy that has happened within China than with simply the philosophy in China that makes it “non-Western.” Now some may conclude that this makes Van Norden as ethnocentric as the philosophers he criticizes.

I am happy to let readers judge for themselves on that score. However, functional conceptions of culture are quite pervasive, especially in the worlds of politics and business, whereby culture is treated as a strategic resource to provide a geographic region with what the classical political economist David Ricardo famously called “comparative advantage” in trade.

But equally, Benedict Anderson’s (1983) influential account of nationalism as the construction of “imagined communities” in the context of extricating local collective identities from otherwise homogenizing imperial tendencies would fall in this category. Basically your culture is what you do that nobody else does—or at least does not do as well as you. However, your culture is not the totality of all that you do, perhaps not even what you do most of the time.

To be sure, this is not the classical anthropological conception of culture, which is “substantive” in the sense of providing a systematic inventory of what people living in a given region actually think and do, regardless of any overlap with what others outside the culture think and do. Indeed, anthropologists in the nineteenth and most of the twentieth centuries expected that most of the items in the inventory would come from the outside, the so-called doctrine of “diffusionism.”

Thus, they have tended to stress the idiosyncratic mix of elements that go into the formation of any culture over any dominant principle. This helps explain why nowadays every culture seems to be depicted as a “hybrid.” I would include Jenco’s conception of Chinese culture in this “substantive” conception.

However, what distinguished, say, Victorians like Edward Tylor from today’s “hybrid anthropologists” was that the overlap of elements across cultures was used by the former as a basis for cross-cultural comparisons, albeit often to the detriment of the non-Western cultures involved. This fuelled ambitions that anthropology could be made into a “science” sporting general laws of progress, etc.

My point here is not to replay the history of the struggle for anthropology’s soul, which continues to this day, but simply to highlight a common assumption of the contesting parties—namely, that a “culture” is defined exclusively in terms of matters happening inside a given geographical region, in which case things happening outside the region must be somehow represented inside the region in order to count as part of a given culture. In contrast, the “functional” conception defines “culture” in purely relational terms, perhaps even with primary reference to what is presumed to lie outside a given culture.

Matters of Substance and Function

Both the substantive and the functional conception derive from the modern core understanding of culture, as articulated by Johann Gottfried Herder and the German Idealists, which assumed that each culture possesses an “essence” or “spirit.” On the substantive conception, which was Herder’s own, each culture is distinguished by virtue of having come from a given region, as per the etymological root of “culture” in “agriculture.” In that sense, a culture’s “essence” or “spirit” is like a seed that can develop in various ways depending on the soil in which it is planted.

Indeed, Herder’s teacher, Kant had already used the German Keime (“seeds”) in a book of lectures whose title is often credited with having coined “anthropology” (Wilson 2014).[5] This is the sense of culture that morphs into racialist ideologies. While such racialism can be found in Kant, it is worth stressing that his conception of race does not depend on the sense of genetic fixity that would become the hallmark of twentieth-century “scientific racism.” Rather, Kant appeared to treat “race” as a diagnostic category for environments that hold people back, to varying degrees, from realizing humanity’s full potential.

Here Kant was probably influenced by the Biblical dispersal of humanity, first with Adam’s Fall and then the Noachian flood, which implied that the very presence of different races or cultures marks our species’ decline from its common divine source. Put another way, Kant was committed to what Lamarck called the “inheritance of acquired traits,” though Lamarck lacked Kant’s Biblical declinist backdrop. Nevertheless, they agreed that a sustainably radical change to the environment could decisively change the character of its inhabitants. This marks them both as heirs to the Enlightenment.

To be sure, this reading of Kant is unlikely to assuage either today’s racists or, for that matter, anti-racists or multiculturalists, since it doesn’t assume that the preservation of racial or cultural identity possesses intrinsic (positive or negative) value. In this respect, Kant’s musings on race should be regarded as “merely historical,” based on his fallible second-hand knowledge of how peoples in different parts of the world have conducted their lives.

In fact, the only sense of difference that the German Idealists unequivocally valued was self-individuation, which is ultimately tied to the functional conception of culture, whereby my identity is directly tied to my difference from you. It follows that the boundaries of culture—or the self, for that matter—are moveable feasts. In effect, as your identity changes, mine does as well—and vice versa.

Justifying a New World Order

This is the metaphysics underwriting imperialism’s original liberal capitalist self-understanding as a global free-trade zone. In its ideal form, independent nation-states would generate worldwide prosperity by continually reorienting themselves to each other in response to market pressures. Even if the physical boundaries between nation-states do not change, their relationship to each other would, through the spontaneous generation and diffusion of innovations.

The result would be an ever-changing global division of labor. Of course, imperialism in practice fostered a much more rigid—even racialized—division of labor, as Marxists from Lenin onward decried. Those who nevertheless remain hopeful in the post-imperial era that the matter can ultimately be resolved diagnose the problem as one of “uneven development,” a phrase that leaves a sour aftertaste in the mouths of “post-colonialists.”

But more generally, “functionalism” as a movement in twentieth-century anthropology and sociology tended towards a relatively static vision of social order. And perhaps something similar could be said about Van Norden’s stereotyping of “China.” However, he would be hardly alone. In his magisterial The Sociology of Philosophies: A Global Theory of Intellectual Change, a book which Van Norden does not mention, Randall Collins (1998)[6] adopts a similarly functionalist stance. There it leads to a quite striking result, which has interesting social epistemological consequences.

Although Collins incorporates virtually every thinker that Chinese philosophy experts normally talk about, carefully identifying their doctrinal nuances and scholastic lineages, he ends his treatment of China at the historical moment that happens to coincide with what he marks as a sea change in the fortunes of Western philosophy, which occurs in Europe’s early modern period.

I put the point this way because Collins scrupulously avoids making any of the sorts of ethnocentric judgements that Van Norden rightly castigates throughout his book, whereby China is seen as un- or pre-philosophical. However, there is a difference in attitude to philosophy that emerges in Europe, less in terms of philosophy’s overall purpose than its modus operandi. Collins calls it rapid discovery science.

Rapid discovery science is the idea that standardization in the expression and validation of knowledge claims—both quantitatively and qualitatively—expedites the ascent to higher levels of abstraction and reflexivity by making it easier to record and reproduce contributions in the ongoing discourse. Collins means here not only the rise of mathematical notation to calculate and measure, but also “technical languages,” the mastery of which became the mark of “expertise” in a sense more associated with domain competence than with “wisdom.” In the latter case, the evolution of “peer review” out of the editorial regimentation of scientific correspondence in the early journals played a decisive role (Bazerman 1987).[7]

Citation conventions, from footnotes to bibliographies, were further efficiency measures. Collins rightly stresses the long-term role of universities in institutionalizing these innovations, but of more immediate import was the greater interconnectivity within Europe that was afforded by the printing press and an improved postal system. The overall result, so I believe, was that collective intellectual memory was consolidated to such an extent that intellectual texts could be treated as capital, something to both build upon and radically redeploy—once one has received the right training to access them. These correspond to the phases that Thomas Kuhn called “normal” and “revolutionary” science, respectively.

To be sure, Collins realizes that China had its own stretches in which competing philosophical schools pursued higher levels of abstraction and reflexivity, sometimes with impressive results. But these were maintained solely by the emotional energy of the participants who often dealt with each other directly. Once external events dispersed that energy, then the successors had to go back to a discursive “ground zero” of referring to original texts and reinventing arguments.

Can There Be More Than One Zero Point?

Of course, the West has not been immune to this dynamic. Indeed, it has even been romanticized. A popular conception of philosophy that continues to flourish at the undergraduate level is that there can be no genuine escape from origins, no genuine sense of progress. It is here that Alfred North Whitehead’s remark that all philosophy is footnotes to Plato gets taken a bit too seriously.

In any case, Collins’ rapid discovery science was specifically designed to escape just this situation, which Christian Europe had interpreted as the result of humanity’s fallen state, a product of Adam’s “Original Sin.” This insight figured centrally in the Augustinian theology that gradually—especially after the existential challenge that Islam posed to Christendom in the thirteenth century—began to color how Christians viewed their relationship to God, the source of all knowing and being. The Protestant Reformation marked a high watermark in this turn of thought, which became the crucible in which rapid discovery science was forged in the seventeenth century. Since the 1930s, this period has been called the “Scientific Revolution” (Harrison 2007).[8]

In the wake of the Protestant Reformation, all appeals to authority potentially became not sources of wisdom but objects of suspicion. They had to undergo severe scrutiny, which at the time were often characterized as “trials of faith.” Francis Bacon, the personal lawyer to England’s King James I, is a pivotal figure because he clearly saw continuity from the Inquisition in Catholic Europe (which he admired, even though it ensnared his intellectual ally Galileo), through the “witch trials” pursued by his fellow Protestants on both sides of the Atlantic, to his own innovation—the “crucial experiment”—which would be subsequently enshrined as the hallmark of the scientific method, most energetically by Karl Popper.

Bacon famously developed his own “hermeneutic of suspicion” as proscriptions against what he called “idols of the mind,” that is, lazy habits of thought that are born of too much reliance on authority, tradition, and surface appearances generally. For Bacon and his fellow early modern Christians, including such Catholics as Rene Descartes, these habits bore the mark of Original Sin because they traded on animal passions—and the whole point of the human project is to rise above our fallen animal natures to recover our divine birthright.

The cultural specificity of this point is often lost, even on Westerners for whom the original theological backdrop seems no longer compelling. What is cross-culturally striking about the radical critique of authority posed by the likes of Bacon and Descartes is that it did not descend into skepticism, even though—especially in the case of Descartes—the skeptical challenge was explicitly confronted. What provided the stopgap was faith, specifically in the idea that once we recognize our fallen nature, redemption becomes possible by finding a clearing on which to build truly secure foundations for knowledge and thereby to redeem the human condition, God willing.

For Descartes, this was “cogito ergo sum.” To be sure, the “God willing” clause, which was based on the doctrine of Divine Grace, became attenuated in the eighteenth century as “Providence” and then historicized as “Progress,” finally disappearing altogether with the rising tide of secularism in the nineteenth century (Löwith 1949; Fuller 2010: chap. 8).[9]

But its legacy was a peculiar turn of mind that continually seeks a clearing to chart a path to the source of all meaning, be it called “God” or “Truth.” This is what makes three otherwise quite temperamentally different philosophers—Husserl, Wittgenstein, and Heidegger—equally followers in Descartes’ footsteps. They all prioritized clearing a space from which to proceed over getting clear about the end state of the process.

Thus, the branches of modern Western philosophy concerned with knowledge—epistemology and the philosophy of science—have been focused more on methodology than axiology, that is, the means rather than the ends of knowledge. While this sense of detachment resonates with, say, the Buddhist disciplined abandonment of our default settings to become open to a higher level of state of being, the intellectual infrastructure provided by rapid discovery science allows for an archive to be generated that can be extended and reflected upon indefinitely by successive inquirers.

Common Themes Across Continents

A good way to see this point is that in principle the Buddhist and, for that matter, the Socratic quest for ultimate being could be achieved in one’s own lifetime with sufficient dedication, which includes taking seriously the inevitability of one’s own physical death. In contrast, the modern Western quest for knowledge—as exemplified by science—is understood as a potentially endless intergenerational journey in which today’s scientists effectively lead vicarious lives for the sake of how their successors will regard them.

Indeed, this is perhaps the core ethic promoted in Max Weber’s famous “Science as a Vocation” lecture (Fuller 2015: chap. 3).[10] Death as such enters, not to remind scientists that they must eventually end their inquiries but that whatever they will have achieved by the end of their lives will help pave the way for others to follow.

Heidegger appears as such a “deep” philosopher in the West because he questioned the metaphysical sustainability of the intellectual infrastructure of rapid discovery science, which the Weberian way of death presupposes. Here we need to recall that Heidegger’s popular reception was originally mediated by the postwar Existentialist movement, which was fixated on the paradoxes of the human condition thrown up by Hiroshima, whereby the most advanced science managed to end the biggest war in history by producing a weapon with the greatest chance of destroying humanity altogether in the future. Not surprisingly, Heidegger has proved a convenient vehicle for Westerners to discover Buddhism.

Early Outreach? Or Appropriation?

Finally, it is telling that the Western philosopher whom Van Norden credits with holding China in high esteem, Leibniz, himself had a functional understanding of China. To be sure, Leibniz was duly impressed by China’s long track record of imperial rule at the political, economic, and cultural levels, all of which were the envy of Europe. But Leibniz honed in on one feature of Chinese culture—what he took to be its “ideographic” script—which he believed could provide the intellectual infrastructure for a global project of organizing and codifying all knowledge so as to expedite its progress.

This was where he thought China had a decisive “comparative advantage” over the West. Clearly Leibniz was a devotee of rapid discovery science, and his project—shared by many contemporaries across Europe—would be pursued again to much greater effect two hundred years later by Paul Otlet, the founder of modern library and information science, and Otto Neurath, a founding member of the logical positivist movement.

While the Chinese regarded their written characters as simply a medium for people in a far-flung empire to communicate easily with each other, Leibniz saw in them the potential for collaboration on a universal scale, given that each character amounted to a picture of an abstraction, the metaphorical rendered literal, a message that was not simply conveyed but embedded in the medium. It seemed to satisfy the classical idea of nous, or “intellectual intuition,” as a kind of perception, which survives in the phrase, “seeing with the mind’s eye.”

However, the Chinese refused to take Leibniz’s bait, which led him to begin a train of thought that culminated in the so-called Needham Thesis, which turns on why Earth’s most advanced civilization, China, failed to have a “Scientific Revolution” (Needham 1969; Fuller 1997: chap. 5).[11] Whereas Leibniz was quick to relate Chinese unreceptiveness to his proposal to their polite but firm rejection of the solicitations of Christian missionaries, Joseph Needham, a committed Marxist, pointed to the formal elements of the distinctive cosmology promoted by the Abrahamic religions, especially Christianity, that China lacked—but stopping short of labelling the Chinese “heathens.”

An interesting feature of Leibniz’s modus operandi is that he saw cross-cultural encounters as continuous with commerce (Perkins 2004).[12]  No doubt his conception was influenced by living at a time when the only way a European could get a message to China was through traders and missionaries, who typically travelled together. But he also clearly imagined the resulting exchange as a negotiation in which each side could persuade the other to shift their default positions to potential mutual benefit.

This mentality would come to be crucial to the dynamic mentality of capitalist political economy, on which Ricardo’s theory of comparative advantage was based. However, the Chinese responded to their European counterparts with hospitality but only selective engagement with their various intellectual and material wares, implying their unwillingness to be fluid with what I earlier called “self-individuation.”

Consequently, Europeans only came to properly understand Chinese characters in the mid-nineteenth century, by which time it was treated as a cultural idiosyncrasy, not a platform for pursuing universal knowledge. That world-historic moment for productive engagement had passed—for reasons that Marxist political economy adequately explains—and all subsequent attempts at a “universal language of thought” have been based on Indo-European languages and Western mathematical notation.

China is not part of this story at all, and continues to suffer from that fact, notwithstanding its steady ascendancy on the world stage over the past century. How this particular matter is remedied should focus minds interested in a productive future for cross-cultural philosophy and multiculturalism more generally. But depending on what we take the exact problem to be, the burden of credit and blame across cultures will be apportioned accordingly.

Based on the narrative that I have told here, I am inclined to conclude that the Chinese underestimated just how seriously Europeans like Leibniz took their own ideas. This in turn raises some rather deep questions about the role that a shift in the balance of plausibility away from “seeing with one’s own eyes” and towards “seeing with the mind’s eye” has played in the West’s ascendancy.


I began this piece by distinguishing a “substantive” and a “functional” approach to culture because even theorists as culturally sensitive as Van Norden and Collins adopt a “functional” rather than a “substantive” approach. They defend and elaborate China as a philosophical culture in purely relational terms, based on its “non-Western” character.

This leads them to include, say, Chinese Buddhism but not Chinese Republicanism or Chinese Communism—even though the first is no less exogenous than the second two to “China,” understood as the land mass on which Chinese culture has been built over several millennia. Of course, this is not to take away from Van Norden’s or Collins’ achievements in reminding us of the continued relevance of Chinese philosophical culture.

Yet theirs remains a strategically limited conception designed mainly to advance an argument about Western philosophy. Here Collins follows the path laid down by Leibniz and Needham, whereas Van Norden takes that argument and flips it against the West—or, rather, contemporary Western philosophy. The result in both cases is that “China” is instrumentalized for essentially Western purposes.

I have no problem whatsoever with this approach (which is my own), as long as one is fully aware of its conceptual implications, which I’m not sure that Van Norden is. For example, he may think that his understanding of Chinese philosophical culture is “purer” than, say, Leigh Jenco’s, which focuses on a period with significant Western influence. However, this is “purity” only in the sense of an “ideal type” of the sort the German Idealists would have recognized as a functionally differentiated category within an overarching system.

In Van Norden’s case, that system is governed by the West/non-West binary. Thus, there are various ways to be “Western” and various ways to be “non-Western” for Van Norden. Van Norden is not sufficiently explicit about this logic. The alternative conceptual strategy would be to adopt a “substantive” approach to China that takes seriously everything that happens within its physical borders, regardless of origin. The result would be the more diffuse, laundry list approach to culture that was championed by the classical anthropologists, for which “hybrid” is now the politically correct term.

To be sure, this approach is not without its own difficulties, ranging from a desire to return to origins (“racialism”) to forced comparisons between innovator and adopter cultures. But whichever way one goes on this matter, “China” remains a contested concept in the context of world philosophy.

Contact details:


Bazerman, Charles. Shaping Written Knowledge. Madison WI: University of Wisconsin Press, 1987.

Collins, Randall. The Sociology of Philosophies: A Global Theory of Intellectual Change. Cambridge MA: Harvard University Press, 1998.

Frodeman, Robert; Adam Briggle. Socrates Tenured. Lanham MD: Rowman and Littlefield, 2016).

Fuller, Steve. Science: Concepts in the Social Sciences. Milton Keynes UK: Open University Press, 1997.

Fuller, Steve. Science: The Art of Living. Durham UK: Acumen, 2010.

Fuller, Steve. Knowledge: The Philosophical Quest in History. London: Routledge, 2015.

Harrison, Peter. The Fall of Man and the Foundations of Science. Cambridge UK: Cambridge University Press, 2007.

Jenco, Leigh. Making the Political: Founding and Action in the Political Theory of Zhang Shizhao. Cambridge UK: Cambridge University Press, 2010.

Jenco, Leigh; Steve Fuller, David Haekwon Kim, Thaddeus Metz, and Miljana Milojevic, “Symposium: Are Certain Knowledge Frameworks More Congenial to the Aims of Cross-Cultural Philosophy?” Journal of World Philosophies 2, no. 2 (2017): 82-145.

Löwith, Karl. Meaning in History: The Theological Implications of Philosophy of History. Chicago: University of Chicago Press, 1949.

Needham, Joseph. The Grand Titration: Science and Society in East and West. London: George Allen and Unwin, 1969.

Perkins, Franklin. Leibniz and China: A Commerce of Light. Cambridge UK: Cambridge University Press, 2004.

Van Norden, Bryan. Taking Back Philosophy: A Multicultural Manifesto. New York: Columbia University Press, 2017.

Wilson, Catherine. “Kant on Civilization, Culture and Moralization,” in Kant’s Lectures on Anthropology: A Critical Guide. Edited by A. Cohen. Cambridge UK: Cambridge University Press, 2014: 191-210.

[1] Bryan Van Norden, “Western Philosophy is Racist,” (; last accessed on May 10, 2018).

[2] See: Leigh Jenco, Steve Fuller, David Haekwon Kim, Thaddeus Metz, and Miljana Milojevic, “Symposium: Are Certain Knowledge Frameworks More Congenial to the Aims of Cross-Cultural Philosophy?” Journal of World Philosophies 2, no. 2 (2017): 82-145 (; last accessed on May 10, 2018).

[3] Robert Frodeman, and Adam Briggle, Socrates Tenured (Lanham MD: Rowman and Littlefield, 2016).

[4] Leigh Jenco, Making the Political: Founding and Action in the Political Theory of Zhang Shizhao (Cambridge UK: Cambridge University Press, 2010).

[5] Catherine Wilson, “Kant on Civilization, Culture and Moralization,” in Kant’s Lectures on Anthropology: A Critical Guide, ed. A. Cohen (Cambridge UK: Cambridge University Press, 2014), 191-210.

[6] Randall Collins, The Sociology of Philosophies: A Global Theory of Intellectual Change (Cambridge MA: Harvard University Press, 1998).

[7] Charles Bazerman, Shaping Written Knowledge (Madison WI: University of Wisconsin Press, 1987).

[8] Peter Harrison, The Fall of Man and the Foundations of Science (Cambridge UK: Cambridge University Press, 2007).

[9] Karl Löwith, Meaning in History: The Theological Implications of Philosophy of History (Chicago: University of Chicago Press, 1949); Steve Fuller, Science: The Art of Living (Durham UK: Acumen, 2010).

[10] Steve Fuller, Knowledge: The Philosophical Quest in History (London: Routledge, 2015).

[11] Joseph Needham, The Grand Titration: Science and Society in East and West (London: George Allen and Unwin, 1969); Steve Fuller, Science: Concepts in the Social Sciences (Milton Keynes UK: Open University Press, 1997).

[12] Franklin Perkins, Leibniz and China: A Commerce of Light (Cambridge UK: Cambridge University Press, 2004).

Author Information: William Davis, California Northstate University,

Davis, William. “Crisis. Reform. Repeat.” Social Epistemology Review and Reply Collective 7, no. 10 (2018): 37-44.

The pdf of the article gives specific page references. Shortlink:

Yale University, in the skyline of New Haven, Connecticut.
Image by Ali Eminov via Flickr / Creative Commons


If you have been involved in higher education in recent decades, you have noticed shifts in how courses are conceived and delivered, and what students, teachers, and administrators expect of each other. Also, water feels wet. The latter statement offers as much insight as the first. When authors argue the need for new academic models, indeed that a kind of crisis in United States higher education is occurring, faculty and administrators in higher education are forgiven if we give a yawning reply: not much insight there.

Another Crisis

Those with far more experience in academia than I will, likely, shake their heads and scoff: demands for shifts in educational models and practices seemingly occur every few years. Not long ago, I was part of the SERRC Collective Judgment Forum (2013) debating the notion that Massive Open Online Courses (MOOCs) are the future of higher education. The possibilities and challenges portended by online education would disrupt (“disruptive technologies” often represent the goals not the fears of the California culture where I live and work) the landscape of colleges and universities in the United States and the rest of the world.

Higher education would have to adapt to meet the needs of burgeoning numbers of people (at what point does one become a ‘student?’) seeking knowledge. The system of higher education faced a crisis; the thousands of people enrolling in MOOCs indicated that hordes of students might abandon traditional universities and embrace new styles of learning that matched the demands of twenty-first century life.

Can you count the number of professional crises you have lived through? If the humanities and/or social sciences are your home, then you likely remember quite a few (Kalin, 2017; Mandler, 2015; Tworek, 2013). That number, of course, represents calamity on a local level: crises that affect you, that loom over your future employment. For many academics, MOOCs felt like just such a threat.

Historian of technology Thomas Hughes (1994)[i] describes patterns in the development, change, and emergence of technologies as “technological momentum.” Technological momentum bridges two expansive and nuanced theories of technological development: determinism—the claim that technologies are the crucial drivers of culture—and constructivism—the idea that cultures drive technological change. MOOCs might motivate change in higher education, but the demands of relevant social groups (Pinch and Bijker 1984) would alter MOOCs, too.

Professors ought not fear their jobs would disappear or consolidate so precipitously that the profession itself would be transformed in a few years or decade: the mammoth system of higher education in the U.S. has its own inertia. Change would happen over time; teachers, students, and universities would adapt and exert counter-influences. Water feels wet.

MOOCs have not revolutionized models of higher education in the United States. Behind the eagerness for models of learning that will satisfy increasing numbers of people seeking higher education, of which MOOCs are one example, lies a growing concern about how higher education is organized, practiced, and evaluated. To understand the changes that higher education seems to require, we ought first to understand what it currently offers. Cathy Davidson (2017), as well as Michal Crow and William Dabars (2015), offer such histories of college and university systems in the United States. Their works demonstrate that a crisis in higher education does not approach; it has arrived.

Education in an Age of Flux

I teach at a new college in a university that opened its doors only a decade ago. One might expect that a new college offers boundless opportunity to address a crisis: create a program of study and methods of evaluating that program (including the students and faculty) that will meet the needs of the twenty-first century world. Situated as we are in northern California, and with faculty trained at Research 1 (R1) institutions, our college could draw from various models of traditional higher education like the University of California system or even private institutions (as we are) like Stanford.

These institutions set lofty standards, but do they represent the kinds of institutions that we ought to emulate? Research by Davidson (2017), Crow and Dabars would recommend we not follow the well-worn paths that established universities (those in existence for at least a few decades) in the United States have trodden. The authors seem to adopt the perspective that higher education functions like a system of technology (Hughes 1994); the momentum exerted by such systems has determining effects, but the possibility of directing the course of the systems exists nevertheless.

Michael Crow and William Dabars (2015) propose a design for reshaping U.S. universities that does not require the total abandonment of current models. The impetus for the needed transformation, they claim, is that the foundations of higher education in the U.S. have decayed; universities cannot meet the demands of the era.

The priorities that once drove research institutions have been assiduously copied, like so much assessment based on memorization and regurgitation that teachers of undergraduates might recognize, that their legibility and efficacy have faded. Crow and Dabars target elite, private institutions like Dartmouth and Harvard as exemplars of higher education that cannot, under their current alignment, meet the needs of twenty-first century students. Concerned as they are with egalitarianism, the authors note that public institutions of higher education born from the Morrill Acts of 1862 and 1890 fare no better at providing for the needs of the nation’s people (National Research Council 1995).

Crow and Dabars’s New American University model (2015, pp. 6-8) emphasizes access, discovery, inclusiveness, and functionality. Education ought to be available to all (access and inclusiveness) that seek knowledge and understanding of the world (discovery) in order to operate within, change, and/or improve it (functionality). The Morrill Acts, on a charitable reading, represent the United States of America’s assertion that the country and its people would mutually benefit from public education available to large swaths of the population.

Crow and Dabars, as well as Davidson (2017), base their interventions on an ostensibly similar claim: more people need better access to resources that will foster intellectual development and permit them to lead more productive lives. The nation benefits when individuals have stimulating engagement with ideas through competent instruction.  Individuals benefit because they may pursue their own goals that, in turn, will ideally benefit the nation.

Arizona State University epitomizes the New American University model. ASU enrolls over 70,000 students—many in online programs—and prides itself on the numbers of students it accepts rather than rejects (compare such a stance with Ivy League schools in the U.S.A.). Crow, President of ASU since 2002, has fostered an interdisciplinary approach to higher education at the university. Numerous institutes and centers (well over 50) have been created to focus student learning on issues/topics of present and future concern. For instance, the Decision Center for a Desert City asks students to imagine a future Phoenix, Arizona, with no, or incredibly limited, access to fresh water.

To engage with a topic that impacts manifold aspects of cities and citizens, solutions will require perspectives from work in disciplines ranging from engineering and the physical sciences to the social sciences and the humanities. The traditional colleges of, e.g., Engineering, Law, Arts and Sciences, etc., still exist at ASU. However, the institutes and centers appear as semi-autonomous empires with faculty from multiple disciplines, and often with interdisciplinary training themselves, leading students to investigate causes of and solutions to existing and emerging problems.

ASU aims to educate broad sections of the population, not just those with imposing standardized tests scores and impressive high school GPAs, to tackle obstacles facing our country and our world. Science and Technology Studies, an interdisciplinary program with scholars that Crow and Dabars frequently cite in their text, attracted my interest because its practitioners embrace ‘messy’ problems that require input from, just to name a few, historians, philosophers, political scientists, and sociologists. While a graduate student in STS, I struggled to explain my program of study to others without referencing existing disciplines like philosophy, history, etc. Though I studied in an interdisciplinary program, I still conceptualized education in disciplinary silos.

As ASU graduates more students, and attracts more interdisciplinary scholars as teachers, we ought to observe how their experiment in education impacts the issues and problems their centers and institutes investigate as well as the students themselves. If students learn from interdisciplinary educators, alongside other students that have not be trained exclusively in the theories and practices of, say, the physical sciences or humanities and social sciences, then they might not see difficult challenges like mental illness in the homeless population of major U.S. cities as concerns to be addressed mainly by psychology, pharmacology, and/or sociology.

Cathy Davidson’s The New Education offers specific illustrations of pedagogical practices that mesh well with Crow and Dabars’s message. Both texts urge universities to include larger numbers of students in research and design, particularly students that do not envision themselves in fields like engineering and the physical sciences. Elite, small universities like Duke, where Davidson previously taught, will struggle to scale up to educate the masses of students that seek higher education, even if they desired to do so.

Further, the kinds of students these institutions attract do not represent the majority of people seeking to further their education beyond the high school level. All colleges and universities need not admit every applicant to align with the models presented by Davidson, Crow and Dabars, but they must commit to interdisciplinary approaches. As a scholar with degrees in Science and Technology Studies, I am an eager acolyte: I buy into the interdisciplinary model of education, and I am part of a college that seeks to implement some version of that model.

Questioning the Wisdom of Tradition

We assume that our institutions have been optimally structured and inherently calibrated not only to facilitate the production and diffusion of knowledge but also to seek knowledge with purpose and link useful knowledge with action for the common good. (Crow and Dabars 2015, 179)

The institutions that Crow, Dabars, and Davidson critique as emblematic of traditional models of higher education have histories that range from decades to centuries. As faculty at a college of health sciences established the same year Crow and Dabars published their work, I am both excited by their proposals and frustrated by the attempts to implement them.

My college currently focuses on preparing students for careers in the health sciences, particularly medicine and pharmacy. Most of our faculty are early-career professionals; we come to the college with memories of how departments were organized at our previous institutions.

Because of my background in an interdisciplinary graduate program at Virginia Tech, and my interest in the program’s history (originally organized as the Center for the Study of Science in Society), I had the chance to interview professors that worked to develop the structures that would “facilitate the production and diffusion of knowledge” (Crow and Dabars 2015, 179). Like those early professors at Virginia Tech, our current faculty at California Northstate University College of Health Sciences come from distinct disciplines and have limited experience with the challenges of designing and implementing interdisciplinary coursework. We endeavor to foster collaboration across disciplines, but we learn as we go.

Crow and Dabars’s chapter “Designing Knowledge Enterprises” reminds one of what a new institution lacks: momentum. At meetings spread out over nearly a year, our faculty discussed and debated the nuances of a promotion and retention policy that acknowledges the contributions of all faculty while satisfying administrative demands that faculty titles, like assistant, associate, and full professor, reflect the practices of other institutions. What markers indicate that a scholar has achieved the level of, say, associate professor?

Originally trained in disciplines like biology, chemistry, physics, or English (coming from the interdisciplinary program of Science and Technology Studies, I am a bit of an outlier) our faculty have been disciplined to think in terms of our own areas of study. We have been trained to advance knowledge in increasingly particular specialties. The criteria to determine a faculty member’s level largely matches what other institutions have developed. Although the faculty endeavored to create a holistic rubric for faculty evaluation, we confronted an administration more familiar with analytic rubrics. How can a university committee compare the work done by professors of genetics and composition?[ii]

Without institutional memory to guide us, the policies and directives at my college of health sciences develop through collective deliberation on the needs of our students, staff, faculty, college, and community. We do not invent policy. We examine publicly available policies created at and for other institutions of higher learning to help guide our own decisions and proposals. Though we can glean much from elite private institutions, as described by Crow and Dabars, and from celebrated public institutions like the University of California or California State University systems that Davidson draws upon at times in her text, my colleagues know that we are not like those other institutions and systems of higher education.

Our college’s diminutive size (faculty, staff, and students) lends itself to agility: when a policy is flawed, we can quickly recognize a problem and adjust it (not to say we rectify it, but we move in the direction of doing so, e.g., a promotion policy with criteria appropriate for faculty, and administrators, from any department). If we identify student, staff, faculty, or administrator needs that have gone unaddressed, we modify or add policies.

The size of our college certainly limits what we can do: we lack the faculty and student numbers to engage in as many projects as we like. We do not have access to the financial reservoirs of large or long-standing institutions to purchase all the equipment one finds at a University of California campus, so we must be creative and make use of what materials we do possess or can purchase.

What our college lacks, somewhat counterintuitively, sets us up to carry forth with what Davidson (2017) describes in her chapter “The Future of Learning:”

The lecture is broken, so we must think of better ways to incorporate active learning into the classroom . . . . The traditional professional and apprentice models don’t teach students how to be experts, and so we must look to peer learning and peer mentoring, rich cocurricular experiences, and research to put the student, not the professor or the institution, at the center. (248-9)

Davidson does not contend that lecture has no place in a classroom. She champion flipped classrooms (Armbruster, Patel, Johnson, and Weiss 2009) and learning spaces that emphasize active student engagement (Elby 2001; Johnson and Johnson 1999) with ideas and concepts—e.g., forming and critiquing arguments (Kuhn 2010).

Claiming that universities “must prepare our students for their epic journey . . . . should give them agency . . . to push back [against the world] and not merely adapt to it” (Davidson 2017, 13) sounds simultaneously like fodder for a press-release and a call to action. It will likely strike educators, a particular audience of Davidson’s text, as obvious, but that should not detract from its intentions. Yes, students need to learn to adapt and be flexible—their chosen professions will almost certainly transform in the coming decades. College students ought to consider the kinds of lives they want to live and the people they want to be, not just the kinds of professions they wish to pursue.

Ought we demonstrate for students that the university symbolizes a locale to cultivate a perspective of “sympathy, empathy, sensitivity, and responsiveness” (Held 2011, p. 479)? Do we see ourselves in a symbiotic world (Margulis and Sagan) or an adversarial world of competition? Davidson, Crow, and Dabars propose a narrative of connectivity, not just of academic disciplines, but of everyday problems and concerns. Professors ought to continue advancing knowledge, even in particular disciplines, but we must not imagine that we do it alone (individually, in teams, in disciplines, or even in institutions).

After Sifting: What to Keep

Crow and Dabars emphasize the interplay between form and function as integral to developing a model for the New American University. We at California Northstate also scrutinize the structure of our colleges. Though our college of health sciences has a life and physical science department, and a department of humanities and social sciences, our full-time faculty number less than twenty. We are on college and university committees together; we are, daily, visible to each other.

With varying levels of success so far, we have developed integrated course-based undergraduate research experiences for our students. In the coming year, we aim to integrate projects in humanities and social sciences courses with those from the physical sciences. Most of our students want to be health practitioners, and we endeavor to demonstrate to them the usefulness of chemistry along with service learning. As we integrate our courses, research, and outreach projects, we aim to provide students with an understanding that the pieces (courses) that make up their education unify through our work and their own.

Team teaching a research methods course with professors of genetics and chemistry in the fall of 2017, I witnessed the rigor and the creativity required for life and physical science research. Students were often confused: the teachers approached the same topics from seemingly disparate perspectives. As my PhD advisor, James Collier, often recounted to me regarding his graduate education in Science and Technology Studies (STS), graduate students were often expected to be the sites of synthesis. Professors came from traditional departments like history, philosophy, and sociology; students in STS needed to absorb the styles and techniques of various disciplines to emerge as interdisciplinarians.

Our students in the research methods class that fall saw a biologist, a chemist, and an STS scholar and likely thought: I want to be none of those things. Why should I learn how to be a health practitioner from professors that do not identify as health practitioners themselves?

When faculty adapt to meet the needs of students pursuing higher education, we often develop the kinds of creole languages elaborated by Peter Galison (1997) to help our students see the connections between traditionally distinct areas of study. Our students, then, should be educated to speak in multiple registers depending on their audience, and we must model that for them. Hailing from disparate disciplines and attempting to teach in ways distinct from how we were taught (e.g., flipped classrooms) and from perspectives still maturing (interdisciplinarity), university faculty have much to learn.

Our institutions, too, need to adapt: traditional distinctions of teaching, scholarship, and service (the hallmarks of many university promotion policies) will demand adjustment if they are to serve as accurate markers of the work we perform. Students, as stakeholders in their own education, should observe faculty as we struggle to become what we wish to see from them. Davidson, Crow, and Dabars argue that current and future crises will not be resolved effectively by approaches that imagine problems as solely technical, social, economic, cultural, or political. For institutions of higher education to serve the needs of their people, nations, and environments (just some of the pieces that must be served), they must acclimate to a world of increasing connectivity. I know: water feels wet.

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Armbruster, Peter, Maya Patel, Erika Johnson, and Martha Weiss. 2009. “Active Learning and Student-centered Pedagogy Improve Student Attitudes and Performance in Introductory Biology” Cell Biology Education—Life Sciences Education 8: 203-13.

Bijker, Wiebe. 1993. “Do Not Dispair: There Is Life after Constructivism.” Science, Technology and Human Values 18: 113-38.

Crow, Michael; and William Dabars. Designing the New University. Johns Hopkinds University Press, 2015.

Davidson, Cathy. The New Education: How to Revolutionize the University to Prepare Students for a World in Flux. Basic Books, 2017.

Davis, William, Martin Evenden, Gregory Sandstrom and Aliaksandr Puptsau. 2013. “Are MOOCs the Future of Higher Education? A Collective Judgment Forum.” Social Epistemology Review and Reply Collective 2 (7) 23-27.

Elby, Andrew. 2001. “Helping Physics Students Learn How to Learn.” American Journal of Physics (Physics Education Research Supplement) 69 (S1): S54-S64.

Galison, Peter. 1997. Image and Logic: A Material Culture of Microphysics. Chicago, IL: The University of Chicago Press.

Hughes, Thomas. 1994. “The Evolution of Large Technical Systems.” The Social Construction of Technological Systems: New Directions in the Sociology and History of Technology. Cambridge, MA: MIT Press.

Johnson, David, and Roger T. Johnson. 1999. “Making Cooperative Learning Work.” Theory into Practice 38 (2): 67-73.

Kalin, Mike. “The Crisis in the Humanities: A Self-Inflicted Wound?” Independent School, Winter 2017.

Kuhn, Deanna. 2010. “Teaching and Learning Science as Argument.” Science Education 94 (5): 810-24.

Mandler, Peter. “Rise of the Humanities.” Aeon Magazine, December 17, 2015.

National Research Council. Colleges of Agriculture at the Land Grant Universities: A Profile. Washington, D.C.: National Academy Press, 1995.

Pinch, Trevor and Wiebe Bijker. 1984. “The Social Construction of Facts and Artifacts: Or How the Sociology of Science and the Sociology of Technology Might Benefit Each Other.” Social Studies of Science 14: 399-441.

Smith, Merritt, and Leo Marx. 1994. Does Technology Drive History? The Dilemma of Technological Determinism

Tworek, Heidi. “The Real Reason the Humanities Are ‘in Crisis.’” The Atlantic, December 18, 2013.

[i] My descriptions here of technological determinism and social constructivism lack nuance. For specifics regarding determinism, see the 1994 anthology from Leo Marx and Merritt Smith, Does Technology Drive History. For richer explanations of constructivism, see Bijker (1993), “Do not despair: There is life after constructivism,” and Pinch and Bijker (1984) “The social construction of facts and artifacts: Or how the sociology of science and the sociology of technology might benefit each other.”

[ii] Hardly rhetorical, that last question is live on my campus. If you have suggestions, please write me.

Author Information: Steve Fuller, Warwick University,

Fuller, Steve. “Markets as Educators, or Have We Always Been Neo-Liberal?” Social Epistemology Review and Reply Collective 5, no. 1 (2016): 29-30.

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Essex University Accommodation Essex Southend Campus 2015 WEB GRADE

Image credit: University of Essex, via flickr

No one in the UK has a bad word for the ‘Robbins Report’, which in 1963 licensed the creation of several campus-based, social science-friendly universities, including Essex, Sussex, Lancaster, York and my own, Warwick—all of which have recently celebrated their fiftieth anniversaries at the top of the world league tables for universities of their vintage. The report is understood in the UK as a high watermark for the recognition of the value of higher education to society at large. Under its auspices, unprecedented numbers of people from non-elite backgrounds suddenly had universities they could reasonably aspire to attending. Successive waves of university creation throughout the world have invoked this report for legitimacy. But there is more to its success than meets the eye.   Continue Reading…

Author Information: Raphael Sassower, University of Colorado, Colorado Springs,

Sassower, Raphael. “Norms and Faith: Comments on the Business of People.” Social Epistemology Review and Reply Collective 4, no. 9 (2015): 1-10.

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Editors Note:

    Given the rich and extensive history of this exchange related articles, replies and responses are provided below the references section. [1]


Image credit: Wikimedia Commons

As much as Karl Popper’s legacy is strewn with misconceptions about his neoconservative biases and his narrow scientific prejudices in regards to the social science—from his dismissal of Marxism as pseudo-science, psychoanalysis as beyond the pale, and the general explanatory/predictive models of all the social sciences as self-fulfilling prophecies—there is something interesting in his intellectual corpus that deserves rethinking. This is where Justin Cruickshank is in full agreement with my views regarding the value to be distilled, decades later, from Popper’s approach. The Popperian approach has fascinated me for years because of several features that may be reasonably overlooked by his disciples and critics. After listing some of them, I wish to illustrate their significance in the 21st century.  Continue Reading…

Author Information: Justin Cruickshank, University of Birmingham, UK,

Cruickshank, Justin. “Neoliberalism, the ‘Scientific Enterprise’ and the ‘Business of People’: Comments on the Sociology and Politics of Knowledge Production.” Social Epistemology Review and Reply Collective 4, no. 8 (2015): 53-65.

The PDF of the article gives specific page numbers. Shortlink:

Editors Note:

    Given the rich and extensive history of this exchange related articles, replies and responses are provided below the references section.[1]


Image credit: Michael D Beckwith, via flickr

In his latest reply (2015a), and in his recent ‘Compromising the Ideals of Science’ (2015b), Raphael Sassower draws together concerns with the natural sciences and political economy. For Sassower (2015a, 2015b) the conception of the natural sciences has changed over time as cultural assumptions, influenced in part by the sociological ‘demystification’ of science, have changed alongside developments in the political economy of science, with much research now being funded by non-scientific bodies (the state and corporations), who seek to regulate or manipulate the outcomes of research.  Continue Reading…