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1910s Timeline - John Innes Centre

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1932 A landmark in the<br />

‘synthetic theory of evolution’<br />

J B S Haldane publishes The<br />

causes of evolution (1932), a<br />

collection of papers elaborating<br />

a mathematical theory of<br />

evolution, in which he<br />

demonstrates that Darwin’s<br />

theory of natural selection can<br />

be integrated with Mendel’s<br />

theory of inheritance to form a<br />

coherent account of<br />

evolutionary change. For this<br />

work Julian Huxley (in 1942)<br />

lionised Haldane (along with<br />

Ronald Fisher and Sewall<br />

Wright) as a founder of<br />

population genetics and a<br />

leading figure in the ‘modern<br />

synthesis’ or ‘synthetic theory of<br />

evolution’. Historians have<br />

considered the ‘modern<br />

synthesis’ either as a project to<br />

reconcile hitherto rival schools<br />

of biology (especially biometric<br />

and Mendelian approaches in<br />

Britain), or as a device to limit<br />

biological perspectives on<br />

evolution within the context of a<br />

struggle for institutional<br />

resources. Whichever narrative<br />

is accepted, it remains true that<br />

Haldane produced one of the<br />

first works of that enterprise,<br />

and that Britain, the home of<br />

the ‘Oxford School’ of broad<br />

Darwinian thinkers (Haldane’s<br />

first University), was very much<br />

involved in the effort to bring<br />

evolutionary theory into<br />

classical genetics (Harman,<br />

2004, p. 112).<br />

See also:<br />

Julian Huxley, Evolution: the<br />

modern synthesis, London:<br />

George Allen & Unwin, 1942.<br />

William Provine, The origins of<br />

theoretical population genetics,<br />

Chicago: Chicago University<br />

Press, 1986.<br />

Ernst Mayr and William Provine<br />

(eds.), The evolutionary<br />

synthesis: perspectives on the<br />

unification of biology,<br />

Cambridge, Mass.: Harvard<br />

University Press, 1980.<br />

Carla Keirns, ‘Evolutionary<br />

synthesis’, pp. 239-241 in A<br />

Reader’s Guide to the History of<br />

Science, ed. A. Hessenbruch<br />

(London: Fitzroy Dearborn,<br />

2000).<br />

Harman, O. S., The man who<br />

invented the chromosome: a life<br />

of Cyril Darlington, Cambridge,<br />

Mass.: Harvard University Press,<br />

2004. See pp. 109-113.<br />

http://en.wikipedia.org/wiki/M<br />

odern_evolutionary_synthesis<br />

http://students.washington.ed<br />

u/gw0/modernsynthesis/<br />

1933 Rose Scott-Moncrieff<br />

joins the staff and contributes<br />

significantly to the<br />

development of biochemical<br />

genetics<br />

In December 1933 Rose Scott-<br />

Moncrieff joins the staff of JIHI<br />

to pursue her studies of the<br />

biochemistry of flower colour<br />

under the direction of J B S<br />

Haldane. She has already<br />

collaborated with JIHI staff for<br />

several years, and from 1931-32<br />

held the title ‘volunteer worker’<br />

at JIHI. Haldane encourages her<br />

to extend her early research on<br />

naturally occurring<br />

anthocyanins to the quite<br />

separate chemical and genetic<br />

studies of flower pigmentation<br />

that were being undertaken at<br />

the time. Armed with<br />

experience gained in Professor<br />

Robert Robinson’s labs in<br />

London and Oxford, Scott-<br />

Moncrieff is able to use new and<br />

quick qualitative methods; for<br />

the first time it has become<br />

Page 24 of 91

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