frankenstein's science. edited by christa knellwolf and jane goodall

2
ana (1576), Gerard Dorn’s De naturae luce physica ex Genesi desumpta (1583), Francisco Valles’ De sacra philosophia (1587), Andreas Libavius’ De universitate et originibus rerum conditarum con- templatio singularis (1610), Conradus Aslacus’ Physica et ethica Mosaica (1613) and Jan Amos Komensky’s Physicae ad lumen divinum reforman- dae synopsis (1633) contributed significantly to both natural investigations and biblical hermeneu- tics, often in strong competition with traditional scholastic accounts. Jan Baptiste van Helmont’s groundbreaking oeuvre can be seen as another characteristic product of this tradition. In his essay on Robert Browne’s notion of seminal principles, Kevin Killeen stresses the importance of Augus- tine’s doctrine of seminal reasons in De genesi ad literam, a model of both hexameral literature and biblical hermeneutic applied to natural philoso- phy. Irving A. Kelter concentrates his analysis on Cornelius Valerius’ Physicae seu de naturae philo- sophia institutio (1567). Valerius (1512–1578), professor of Latin at the University of Louvain, argued that the world had been created, that there was no essential difference between celestial and earthly matter, no soul permeated the world, and natural movements were governed by divine providence rather than material determinism. Reliance on biblical and patristic sources meant for Valerius the demise of Aristotelian physics. Kelter argues that in many respects Valerius’ case is not different from Cardinal Robert Bellarmino, who in his 1570–1572 lectures at the University of Louvain criticised traditional scholastic doctrines such as the existence of ether and celestial spheres. What is more, Bellarmino’s views concerning the fluidity and corruptibility of the heavens were accepted by his fellow Jesuits. Volker R. Remmert argues that, long before the Galilei affair, Jesuit astronomers and theologians emphasised the interplay of biblical exegesis, rational demonstrations (rationes necessariae) and empirical proofs (manifesta experimenta) as a source of authoritative knowledge. The most renowned case is Christoph Clavius’ commentary on John of Sacrobosco’s De sphaera (1581) and Opera mathematica (1612), but Remmert also refers to Nicolaus Serarius’s commentary of the Book of Joshua (1609), Juan de Pineda’s Com- mentariorum in Iob libri tredecim (1600), Benito Pereira’s Commentariorum et disputationum in Genesim tomi quatuor (1591–99) and Jean Lorin’s In Acta Apostolorum commentaria (1605). Among the biblical loci that became matter of intense debate as a result of new astronomical discoveries, Remmert focuses on 2 Kings 20:8–11, Joshua 10:12 and Genesis 15:5. Remmert points out that more research needs to be done in two directions: a systematic study of the defining features of Jesuit biblical exegesis and, on a more specific level, an investigation of the relevance of biblical exegesis in Jesuit science. Finally, the reader may be interested to know what biblical loci are examined in the book. Here is a summary list: Genesis 1 (the Mosaic account of creation); Genesis 11:1–9 (Tower of Babel); Job 37:18 (hardness of the celestial spheres); Job 38 (the foundations of the earth); 2 Kings 20:8–11 (sun reversing its course); Joshua 10:12 (sun standing still); Psalm 19:3–4 (the heavens declare the glory of God); Daniel 12:4 (the beginning of a new era based on the progress of knowledge); Matthew 18:3 (becoming little chil- dren as a requisite for being admitted to the kingdom of heaven); 1 Corinthians 10:4 (Wisdom made flesh); Revelation 9:2–5 (locusts and their symbols). The Warburg Institute Guido Giglioni Frankenstein’s Science. Edited by Christa Knellwolf and Jane Goodall. Pp. x, 225, Aldershot, Ashgate, 2008, $99.95. Christa Knellwolf is a Visiting Professor of English and Cultural Theory at the University of Konstanz and an Adjunct Associate Professor at the Australian National University. Jane Goodall is a Professor with the Writing and Society Research Group at the University of Western Sydney, Australia. Together they have edited a text that seeks to reopen the question of how science and scientific ambitions are portrayed in Mary Shelley’s Frankenstein. This is the only book-length study that contextualizes this novel into contemporary scientific and literary debates. The essays are written by leaders in their fields and provide new scholarship into areas of science and pseudo-science that generated fierce controversy in the early nineteenth century: anatomy, electricity, medicine, teratology, Mesmerism, quackery, and proto-evo- lutionary biology. While Frankenstein is often read as a cautionary tale on the dangers of scientific experimentation, several essays contend that within the period in which it was written, experimenters and radical thinkers viewed science as the herald of social innovation that would counter the backlash in the aftermath of the French Revolution. Patricia Fara begins the volume with an essay concerning women and the scientific literature of 332 BOOK REVIEWS

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Page 1: Frankenstein's Science. Edited by Christa Knellwolf and Jane Goodall

ana (1576), Gerard Dorn’s De naturae luce physicaex Genesi desumpta (1583), Francisco Valles’ Desacra philosophia (1587), Andreas Libavius’ Deuniversitate et originibus rerum conditarum con-templatio singularis (1610), Conradus Aslacus’Physica et ethica Mosaica (1613) and Jan AmosKomensky’s Physicae ad lumen divinum reforman-dae synopsis (1633) contributed significantly toboth natural investigations and biblical hermeneu-tics, often in strong competition with traditionalscholastic accounts. Jan Baptiste van Helmont’sgroundbreaking oeuvre can be seen as anothercharacteristic product of this tradition. In his essayon Robert Browne’s notion of seminal principles,Kevin Killeen stresses the importance of Augus-tine’s doctrine of seminal reasons in De genesi adliteram, a model of both hexameral literature andbiblical hermeneutic applied to natural philoso-phy. Irving A. Kelter concentrates his analysis onCornelius Valerius’ Physicae seu de naturae philo-sophia institutio (1567). Valerius (1512–1578),professor of Latin at the University of Louvain,argued that the world had been created, that therewas no essential difference between celestial andearthly matter, no soul permeated the world, andnatural movements were governed by divineprovidence rather than material determinism.Reliance on biblical and patristic sources meantfor Valerius the demise of Aristotelian physics.Kelter argues that in many respects Valerius’ caseis not different from Cardinal Robert Bellarmino,who in his 1570–1572 lectures at the University ofLouvain criticised traditional scholastic doctrinessuch as the existence of ether and celestial spheres.What is more, Bellarmino’s views concerning thefluidity and corruptibility of the heavens wereaccepted by his fellow Jesuits.Volker R. Remmert argues that, long before the

Galilei affair, Jesuit astronomers and theologians

emphasised the interplay of biblical exegesis,rational demonstrations (rationes necessariae)and empirical proofs (manifesta experimenta) as asource of authoritative knowledge. The mostrenowned case is Christoph Clavius’ commentaryon John of Sacrobosco’s De sphaera (1581) andOpera mathematica (1612), but Remmert alsorefers to Nicolaus Serarius’s commentary of theBook of Joshua (1609), Juan de Pineda’s Com-mentariorum in Iob libri tredecim (1600), BenitoPereira’s Commentariorum et disputationum inGenesim tomi quatuor (1591–99) and Jean Lorin’sIn Acta Apostolorum commentaria (1605). Amongthe biblical loci that became matter of intensedebate as a result of new astronomical discoveries,Remmert focuses on 2 Kings 20:8–11, Joshua10:12 and Genesis 15:5. Remmert points out thatmore research needs to be done in two directions: asystematic study of the defining features of Jesuitbiblical exegesis and, on a more specific level, aninvestigation of the relevance of biblical exegesis inJesuit science.Finally, the reader may be interested to know

what biblical loci are examined in the book. Here isa summary list: Genesis 1 (the Mosaic account ofcreation); Genesis 11:1–9 (Tower of Babel);Job 37:18 (hardness of the celestial spheres); Job38 (the foundations of the earth); 2 Kings 20:8–11(sun reversing its course); Joshua 10:12(sun standing still); Psalm 19:3–4 (the heavensdeclare the glory of God); Daniel 12:4 (thebeginning of a new era based on the progress ofknowledge); Matthew 18:3 (becoming little chil-dren as a requisite for being admitted to thekingdom of heaven); 1 Corinthians 10:4 (Wisdommade flesh); Revelation 9:2–5 (locusts and theirsymbols).

The Warburg Institute Guido Giglioni

Frankenstein’s Science. Edited by Christa Knellwolf and Jane Goodall. Pp. x, 225, Aldershot, Ashgate, 2008,$99.95.

Christa Knellwolf is a Visiting Professor of Englishand Cultural Theory at the University of Konstanzand an Adjunct Associate Professor at theAustralian National University. Jane Goodall is aProfessor with the Writing and Society ResearchGroup at the University of Western Sydney,Australia. Together they have edited a text thatseeks to reopen the question of how science andscientific ambitions are portrayed in Mary Shelley’sFrankenstein. This is the only book-length studythat contextualizes this novel into contemporaryscientific and literary debates. The essays arewritten by leaders in their fields and provide new

scholarship into areas of science and pseudo-sciencethat generated fierce controversy in the earlynineteenth century: anatomy, electricity, medicine,teratology, Mesmerism, quackery, and proto-evo-lutionary biology. While Frankenstein is often readas a cautionary tale on the dangers of scientificexperimentation, several essays contend that withinthe period in which it was written, experimentersand radical thinkers viewed science as the herald ofsocial innovation that would counter the backlashin the aftermath of the French Revolution.Patricia Fara begins the volume with an essay

concerning women and the scientific literature of

332 BOOK REVIEWS

Page 2: Frankenstein's Science. Edited by Christa Knellwolf and Jane Goodall

the nineteenth century; Fara overviews the variouspublications that Mary Shelley may have beenexposed to in her education, and which in part mayhave furthered her imagination. Judith Barbourfurthers this exploration of what Shelley may haveread by offering detailed insight into the contentsof the Juvenile Library, a serial encylopaediapublished in 1807; Barbour contends that thevarious controversies about mankind’s purpose,which were documented in the Juvenile Library,fuelled her speculations regarding the potentials ofthen-contemporary science. Knellworth’s owncontribution documents the difficulty of trying tomap and chart the phenomena of the mind in thattime period.Anita Guerrini discusses then-contemporary

debates about the sanctity of life, and argues thatearly 19th century debates about vivisection werein part motivated by an attempt to explore thedepths of the mysteries of life. Melinda Cooperexplores the linkage between the book by Shelleyand the furthering of the budding science ofteratology (i.e. the study of defects). Joan Kirbyanalyzes the spiritual ideas underpinning the storyof Frankenstein, while Jane Goodall traces thedevelopment of electrical experiment in the latter

decades of the eighteenth century. In what may bethe best essay of the lot, Allan Hunter shows howShelley’s character, Frankenstein, draws fromvarious threads of then-contemporary science;e.g., she invokes the materialist philosophy of theScottish enlightenment, especially with regard toits effort to explain social dynamics (pp. 139–40).Ian Jackson explores whether the debates of 1814,

involving natural scientists, regarding the potentialexistence of a ‘life-force’ within humanity, was theimmediate background of Shelley’s novel, a notionthat she co-opted into electricity. The eleventhchapter is a reflection how Frankenstein’s adven-tures in life may be parallel to the increasedemphasis that the collection of specimens experi-enced in late eighteenth and early nineteenth centuryscience. The volume is rounded-out by RobertMarkley’s chapter, covering the seemingly autono-mous development of planetary science in the lateeighteenth and early nineteenth centuries; he hereinsuggests that Shelley’s novel may speak to thepotential problem of the relationship betweenhumanity and the world, like H.G. Wells’ novels.

Regent University,Virginia Beach, VA

Bradford McCall

Understanding Consciousness (2nd ed.). By Max Velmans. Pp. xii, 393, London/NY, Routledge, 2009.

After a first section giving the historical back-ground to the almost intractable problem ofunderstanding consciousness, Velmans lists 10statements to which the average person wouldgive assent (p. 122), and which illustrate the ‘trickledown’ effect of Cartesian dualism (through ‘scien-tific culture’) into our common sense. Most of usare functional dualists who posit an immaterial rescogitans separated from a material res extensa by‘ideas’ which are the only things we know directly,and which need bear no similarity to what theyclaim to represent. The problems with this theoryare legion, and the dominant strategy by modernpsychology – chiefly functionalists and eliminativematerialists – has been either denying the reality ofconsciousness or declaring it identical with neuralactivity or brain states. Velmans concedes thatthere are neural correlates and causes to consciousexperience, but he has no difficulty in showing thatthey are not and cannot be ontologically identicalwith consciousness; his programme here is todevelop a more adequate explanatory account thatwould do justice to both our first-person consciousexperiences and to the third-person reports byexternal observers of either our behaviour or ourneural activity. He develops a theory of ‘reflexivemonism’ – an ontological monism combined with

epistemological dualism, or a ‘dual aspect’ access to asingle deeper reality – that undercuts the assumptionsof the previously unacceptable dualism, fits nicelywith the deliverances of common sense, and justifiesa ‘critical realism’ in epistemology. Though fallingshort of the univocal description of the ultimatebuilding blocks to which modern science aspires(‘matter’ is a mysterious reality that is definitely nolonger ‘inert’, but rather ‘ert’, ‘sensitive’, and asWhitehead held, perhaps even ‘mental’), Velmansshows that this is close to the situation in whichscience finds itself with regard to other mysteriousbut undeniably basic realities, such as the wave-particle theory of light, and the relationship betweenelectricity and magnetism. To choose an olderanalogy – the Nicene creed – whatever paradoxesattend this way of speaking about an ultimate reality,they are preferable to the outright contradictions andunacceptable eliminations that any alternative wayof speaking lands us in. This is a bravura perfor-mance, and Velmans has filled out this secondedition with a fuller engagement with his critics anddiscussions of new developments in neural research,information processing, and philosophy of mind.That said, his monism could have perhaps been

even more ‘reflexive’ – that is, on the basis of thedata Velmans supplies, the story of consciousness

BOOK REVIEWS 333