A chemical compass for bird navigation

Ilia A. Solov'yov, Thorsten Ritz, Klaus Schulten, Peter J. Hore

Research output: Chapter in Book/Report/Conference proceedingChapter

Abstract

Introduction Migratory birds travel spectacular distances each year, navigating and orienting by a variety of means, most of which are poorly understood. Among these is a remarkable ability to perceive the intensity and direction of the Earth's magnetic field (Mouritsen and Ritz, 2005; Wiltschko and Wiltschko, 2006; Johnsen and Lohmann, 2008). Biologically credible mechanisms for the detection of such a weak field (25–65 μT) are scarce, and in recent years just two proposals have emerged as front-runners. One, essentially classical, centers on clusters of magnetic iron-containing particles in the upper beak, which appear to act as a magnetometer for determining geographical position (Kirschvink and Gould, 1981; Kirschvink et al., 2001; Fleissner et al., 2007; Solov'yov and Greiner, 2007; Walker, 2008; Solov'yov and Greiner, 2009a, b; Falkenberg et al., 2010). The other relies on the quantum spin dynamics of transient photoinduced radical pairs (Schulten et al., 1978; Schulten, 1982; Schulten and Windemuth, 1986; Ritz et al., 2000b; Cintolesi et al., 2003; Möller et al., 2004; Mouritsen et al., 2004; Heyers et al., 2007; Liedvogel et al., 2007b, a; Solov'yov et al., 2007; Feenders et al., 2008; Maeda et al., 2008; Solov'yov and Schulten, 2009; Ritz et al., 2009; Rodgers and Hore, 2009; Zapka et al., 2009). Originally suggested by Schulten in 1978 (Schulten et al., 1978) as the basis of the avian magnetic compass sensor, this mechanism gained support from the subsequent observation that the compass is light dependent (Wiltschko et al., 1993) (for a review see e.g. (Wiltschko et al., 2010)).

Original languageEnglish (US)
Title of host publicationQuantum Effects in Biology
PublisherCambridge University Press
Pages218-236
Number of pages19
ISBN (Electronic)9780511863189
ISBN (Print)9781107010802
DOIs
StatePublished - Jan 1 2014

Fingerprint

Beak
Birds
Magnetic Fields
Navigation
Iron
Spin dynamics
Light
Magnetometers
Earth (planet)
Magnetic fields
Sensors
Direction compound

ASJC Scopus subject areas

  • Biochemistry, Genetics and Molecular Biology(all)

Cite this

Solov'yov, I. A., Ritz, T., Schulten, K., & Hore, P. J. (2014). A chemical compass for bird navigation. In Quantum Effects in Biology (pp. 218-236). Cambridge University Press. https://doi.org/10.1017/CBO9780511863189.012

A chemical compass for bird navigation. / Solov'yov, Ilia A.; Ritz, Thorsten; Schulten, Klaus; Hore, Peter J.

Quantum Effects in Biology. Cambridge University Press, 2014. p. 218-236.

Research output: Chapter in Book/Report/Conference proceedingChapter

Solov'yov, IA, Ritz, T, Schulten, K & Hore, PJ 2014, A chemical compass for bird navigation. in Quantum Effects in Biology. Cambridge University Press, pp. 218-236. https://doi.org/10.1017/CBO9780511863189.012
Solov'yov IA, Ritz T, Schulten K, Hore PJ. A chemical compass for bird navigation. In Quantum Effects in Biology. Cambridge University Press. 2014. p. 218-236 https://doi.org/10.1017/CBO9780511863189.012
Solov'yov, Ilia A. ; Ritz, Thorsten ; Schulten, Klaus ; Hore, Peter J. / A chemical compass for bird navigation. Quantum Effects in Biology. Cambridge University Press, 2014. pp. 218-236
@inbook{2672c29a79d048dbb7d6aa433347b325,
title = "A chemical compass for bird navigation",
abstract = "Introduction Migratory birds travel spectacular distances each year, navigating and orienting by a variety of means, most of which are poorly understood. Among these is a remarkable ability to perceive the intensity and direction of the Earth's magnetic field (Mouritsen and Ritz, 2005; Wiltschko and Wiltschko, 2006; Johnsen and Lohmann, 2008). Biologically credible mechanisms for the detection of such a weak field (25–65 μT) are scarce, and in recent years just two proposals have emerged as front-runners. One, essentially classical, centers on clusters of magnetic iron-containing particles in the upper beak, which appear to act as a magnetometer for determining geographical position (Kirschvink and Gould, 1981; Kirschvink et al., 2001; Fleissner et al., 2007; Solov'yov and Greiner, 2007; Walker, 2008; Solov'yov and Greiner, 2009a, b; Falkenberg et al., 2010). The other relies on the quantum spin dynamics of transient photoinduced radical pairs (Schulten et al., 1978; Schulten, 1982; Schulten and Windemuth, 1986; Ritz et al., 2000b; Cintolesi et al., 2003; M{\"o}ller et al., 2004; Mouritsen et al., 2004; Heyers et al., 2007; Liedvogel et al., 2007b, a; Solov'yov et al., 2007; Feenders et al., 2008; Maeda et al., 2008; Solov'yov and Schulten, 2009; Ritz et al., 2009; Rodgers and Hore, 2009; Zapka et al., 2009). Originally suggested by Schulten in 1978 (Schulten et al., 1978) as the basis of the avian magnetic compass sensor, this mechanism gained support from the subsequent observation that the compass is light dependent (Wiltschko et al., 1993) (for a review see e.g. (Wiltschko et al., 2010)).",
author = "Solov'yov, {Ilia A.} and Thorsten Ritz and Klaus Schulten and Hore, {Peter J.}",
year = "2014",
month = "1",
day = "1",
doi = "10.1017/CBO9780511863189.012",
language = "English (US)",
isbn = "9781107010802",
pages = "218--236",
booktitle = "Quantum Effects in Biology",
publisher = "Cambridge University Press",
address = "United States",

}

TY - CHAP

T1 - A chemical compass for bird navigation

AU - Solov'yov, Ilia A.

AU - Ritz, Thorsten

AU - Schulten, Klaus

AU - Hore, Peter J.

PY - 2014/1/1

Y1 - 2014/1/1

N2 - Introduction Migratory birds travel spectacular distances each year, navigating and orienting by a variety of means, most of which are poorly understood. Among these is a remarkable ability to perceive the intensity and direction of the Earth's magnetic field (Mouritsen and Ritz, 2005; Wiltschko and Wiltschko, 2006; Johnsen and Lohmann, 2008). Biologically credible mechanisms for the detection of such a weak field (25–65 μT) are scarce, and in recent years just two proposals have emerged as front-runners. One, essentially classical, centers on clusters of magnetic iron-containing particles in the upper beak, which appear to act as a magnetometer for determining geographical position (Kirschvink and Gould, 1981; Kirschvink et al., 2001; Fleissner et al., 2007; Solov'yov and Greiner, 2007; Walker, 2008; Solov'yov and Greiner, 2009a, b; Falkenberg et al., 2010). The other relies on the quantum spin dynamics of transient photoinduced radical pairs (Schulten et al., 1978; Schulten, 1982; Schulten and Windemuth, 1986; Ritz et al., 2000b; Cintolesi et al., 2003; Möller et al., 2004; Mouritsen et al., 2004; Heyers et al., 2007; Liedvogel et al., 2007b, a; Solov'yov et al., 2007; Feenders et al., 2008; Maeda et al., 2008; Solov'yov and Schulten, 2009; Ritz et al., 2009; Rodgers and Hore, 2009; Zapka et al., 2009). Originally suggested by Schulten in 1978 (Schulten et al., 1978) as the basis of the avian magnetic compass sensor, this mechanism gained support from the subsequent observation that the compass is light dependent (Wiltschko et al., 1993) (for a review see e.g. (Wiltschko et al., 2010)).

AB - Introduction Migratory birds travel spectacular distances each year, navigating and orienting by a variety of means, most of which are poorly understood. Among these is a remarkable ability to perceive the intensity and direction of the Earth's magnetic field (Mouritsen and Ritz, 2005; Wiltschko and Wiltschko, 2006; Johnsen and Lohmann, 2008). Biologically credible mechanisms for the detection of such a weak field (25–65 μT) are scarce, and in recent years just two proposals have emerged as front-runners. One, essentially classical, centers on clusters of magnetic iron-containing particles in the upper beak, which appear to act as a magnetometer for determining geographical position (Kirschvink and Gould, 1981; Kirschvink et al., 2001; Fleissner et al., 2007; Solov'yov and Greiner, 2007; Walker, 2008; Solov'yov and Greiner, 2009a, b; Falkenberg et al., 2010). The other relies on the quantum spin dynamics of transient photoinduced radical pairs (Schulten et al., 1978; Schulten, 1982; Schulten and Windemuth, 1986; Ritz et al., 2000b; Cintolesi et al., 2003; Möller et al., 2004; Mouritsen et al., 2004; Heyers et al., 2007; Liedvogel et al., 2007b, a; Solov'yov et al., 2007; Feenders et al., 2008; Maeda et al., 2008; Solov'yov and Schulten, 2009; Ritz et al., 2009; Rodgers and Hore, 2009; Zapka et al., 2009). Originally suggested by Schulten in 1978 (Schulten et al., 1978) as the basis of the avian magnetic compass sensor, this mechanism gained support from the subsequent observation that the compass is light dependent (Wiltschko et al., 1993) (for a review see e.g. (Wiltschko et al., 2010)).

UR - http://www.scopus.com/inward/record.url?scp=84939297093&partnerID=8YFLogxK

UR - http://www.scopus.com/inward/citedby.url?scp=84939297093&partnerID=8YFLogxK

U2 - 10.1017/CBO9780511863189.012

DO - 10.1017/CBO9780511863189.012

M3 - Chapter

AN - SCOPUS:84939297093

SN - 9781107010802

SP - 218

EP - 236

BT - Quantum Effects in Biology

PB - Cambridge University Press

ER -