CV
- 1994-1999 Studies of biophysics at the
Humboldt-Universität zu Berlin, and at the Universidad Complutense de
Madrid
- 1999 Diploma thesis at the
Humboldt-Universität zu Berlin, group of Theoretical
Biophysics, supervised by Stefan
Schuster
- 2000-2001 PhD position at the
Friedrich-Miescher-Institut, Basel, group of Theoretical and
Computational Biology, supervised by Sebastian Bonhoeffer
- 2001-2003 PhD position at the group
for Experimental Ecology and
Theoretical Biology, ETH Zurich, supervised by Sebastian
Bonhoeffer
- 2003-2005 Research fellow at the ETH Computational Laboratory
- 2005-2010 Researcher at the Program of Evolutionary
Dynamics at Harvard University, funded by Society in Science
- Since 2010 FQEB Prize
Fellow at the
Program of Evolutionary
Dynamics at Harvard University, affiliated with Tufts
Medical
School and Harvard SEAS
Computer Science
Research
- Evolution of scientific knowledge.
Publications in
scientific journals contain a large fraction of scientific knowledge of
mankind. The question of how this knowledge is obtained and how it
evolves over time has fascinated philosophers - and a number of
evolutionary biologists - for
a long time. Using information from publication databases I aim to
understand how scientific information is transferred from publication
to publication and from researcher to researcher; how researchers
choose their research topics; and what factors determine their success.
Long-term perspective of my research project is to test theories for
the evolution of knowledge such as Richard Dawkins concept of memes.
- Reciprocal altruism and the use of social
information.
Reciprocal altruism is a major explanation for the emergence of
cooperation among unrelated individuals. Cooperation may be beneficial
if it is reciprocated by other individuals in future interactions. In
direct reciprocity, individuals reciprocate previous cooperative
interactions with the present partner. In indirect reciprocity,
cooperation may be reciprocated by individuals other than the present
partner. Using computer simulations, I am studying which type of
information (observed vs. experienced; individual-specific vs.
unspecific) can be used by strategies of reciprocal altruism.
- Evolution of complex biochemical networks.
Processes in
living organisms are the result of interactions of biochemical
compounds in
highly complex networks. It is a major challenge in biology to
understand the design and functioning of these networks. Since
biochemical networks emerge as a result of Darwinian evolution it is a
promising approach to study the impact of evolutionary processes on
network design and functioning. In my research projects I am studying
the consequences of tradeoffs between rate and yield of ATP-producing
pathways, the emergence of crossfeeding in microbial populations, and
the origin of "hub metabolites" in metabolic networks.
Publications
- Pfeiffer T, Bertram L, Ioannnidis JPA. Quantifying Selective Reporting and the
Proteus Phenomenon for Multiple Datasets with Similar Bias. PLoS ONE 6 (2010) e18362 [PLoS ONE] [Accompanying R code]
- Pfeiffer T, Almenberg J. Prediction
markets and their potential
role in biomedical research - a review. Biosystems 102 (2010) 71-6.
[Biosystems][PubMed]
- Soyer OS, Pfeiffer T. Evolution
under fluctuating
environments explaines observed robustness in metabolic networks.
PLoS Comp Biol 6 (2010)
e1000907. [PLoS][PubMed]
- Almenberg J, Kittlitz K, Pfeiffer T. An experiment on prediction
markets in science. Pl.oS ONE
4 (2009) e8500 [PLoS]
[PubMed]
- Rutte
C, Pfeiffer T. Evolution
of reciprocal altruism by copying of observed behavior. Current Science 97 (2009) 1573-8 [CurrSci] [PubMed]
- Rand DG, Pfeiffer T. Systematic
differences in citation count across publiction tracks at PNAS. PLoS ONE 4 (2009) e8092 [PLoS] [PubMed]
- Novak M, Pfeiffer T, Ackermann M,
Bonhoeffer S. Bacterial growth
properties at low optical densities. Antonie Van
Leeuwenhoek 96 (2009) 267-75 [PubMed]
- Pfeiffer T, Hoffmann R. On the
reliability of published research: An evaluation of protein
interactions. PLoS ONE
4 (2009) e5996 [PubMed]
[PLoS]
- Rand
DG, Pfeiffer T, Dreber A, Sheketoff R, Wernerfelt N, Benkler
Y. From foe to friend: Tracing
democratic in-group bias. PNAS
106 (2009) [PNAS]
[PubMed]
- Pfeiffer T, Rand DG, Dreber A. Decision-making
in research tasks with sequential testing. PLoS ONE 4 (2009) e4607 [PubMed] [PLoS]
- Schuster S, Kreft JU, Schroeter
A, Pfeiffer T. Use
of game-theoretical methods in biochemistry and biophysics. J
Biol Phys 34 (2008) 1-17 [JBiolPhys]
[PubMed]
- Schuster S, Pfeiffer T, Fell DA. Is maximization of molar yield in
metabolic networks a universal principle? JTB 252 (2008) 497-504 [PubMed]
- Pfeiffer T, Hoffmann R. Temporal
patterns of genes in scientific publications. PNAS 104 (2007) 12052-6 [PubMed] [PNAS]
- Steiner UK, Pfeiffer T. Optimizing
time and resource allocation trade-offs for investment in morphological
and behavioral defense. Am Nat.
169 (2007) 118-29 [PubMed]
- Pfeiffer T, Nowak MA. Digital
cows grazing on digital grounds Current
Biology (Essay) 22 (2006) R946-9 [PubMed]
- Pfeiffer T, Nowak MA. All in
the game. Nature (News
& Views) 441(2006) 583-4. [Nature]
[PubMed]
- Novak M, Pfeiffer T, Lenski RE, Sauer U, Bonhoeffer S. Experimental evidence for an evolutionary
trade-off between growth rate and yield in E. coli. Am Nat. 168 (2006) 242-51 [PubMed]
- Soyer OS, Pfeiffer T, Bonhoeffer S. Simulating the evolution of signal
transduction networks. JTB 241
(2006) 223-32. [PubMed]
- Pfeiffer T, Soyer OS, Bonhoeffer S. Evolution of connectivity in metabolic
networks. PLoS B 3
(2005) e228. [PLoS]
[PubMed]
- Pfeiffer T, Rutte C, Killingback T, Taborsky M, Bonhoeffer S. Evolution of cooperation by generalized
reciprocity. Proceedings B
272 (2005) 1115-20. [ProcB]
[PubMed]
- Pfeiffer T, Schuster S. Game-theoretical
approaches to studying the evolution of biochemical systems. TiBS 30 (2005) 20-5. [TiBS]
[PubMed]
- Pfeiffer T, Bonhoeffer S. Evolution
of crossfeeding in microbial populations. Am Nat. 163 (2004) E126-35. [PubMed]
- Pfeiffer T, Bonhoeffer S. An
evolutionary scenario for the transition to undifferentiated
multicellularity. PNAS
100 (2003) 1095-1098. [PNAS] [PubMed]
- Schuster S, Klamt S, Weckwerth W, Moldenhauer F, Pfeiffer T. Use of network analysis of metabolic
systems in bioengineering. Bioprocess
Biosyst Eng. 24 (2002) 363-72
- Pfeiffer T, Bonhoeffer S. Evolutionary
consequences of tradeoffs between yield and rate of ATP production.
Z Phys Chem. 216 (2002)
51-63
- Schuster S, Pfeiffer T, Moldenhauer F, Koch I, Dandekar T. Exploring the pathway structure of
metabolism: decomposition into subnetworks and application to
Mycoplasma pneumoniae. Bioinformatics
18 (2002) 351-361. [Bioinformatics]
[PubMed]
- Pfeiffer T, Schuster S, Bonhoeffer S, Cooperation and competition in the
evolution of ATP-producing pathways. Science 292 (2001) 504-7. [Science]
[PubMed]
- Pfeiffer T, Sanchez-Valdenebro I, Nuno JC, Montero F, Schuster S.
METATOOL: for studying metabolic
networks. Bioinformatics
15 (1999) 251-7. [PubMed]
[Publications on
ResearcherID]
Software
METATOOL
- for topological analysis of metabolic networks (elementary modes,
kernel,enzyme subsets, ...)
MultiWeightFunction - R code for
field-wide estimates of publication bias (see Pfeiffer et al. PLoS ONE
2011)
Media
Popular Science: Beware
False Claims (28.07.2009, by Sharon
Begley)
Popular Fields Less
Accurate (25.07.2009, by Robin
Hanson)
In Science, Popularity
Means Inaccuracy (27.07.2009)
Popularity versus reliability in medical
research (06.07.1009)
Virtuelles Stoffwechselnetz
(28.09.2005, von Christoph
Meier)
Das Stoffwechselnetz einer Zelle zeichnet sich durch einige wenige
stark verbundene Knoten aus. ETH-Forscher zeigen an einem
Computermodell, wie eine solche Struktur entstehen kann.
Der Mehrzelligkeit auf
der Spur
(05.04.2001, von Christoph
Meier)
Anhand von Computermodellen ist es ETH-Forschern gelungen, Bedingungen
zu
finden, welche die Entstehung von Nahrungs-abhängigen Mehrzellern
begünstigt haben könnten. Die Energiegewinnung spielt dabei eine
zentrale Rolle.
Collaborations
last change 29/04/2011