Allometry of Alarm Calls: Black-Capped Chickadees Encode Information About Predator Size
By Christopher N. Templeton, E. Greene, Kate Davis. Science, 2005
649 citations recorded by the source corpus.
Subfields: Developmental Biology, Ecology, Ecology, Evolution, Behavior and Systematics
View Paper: https://www.semanticscholar.org/paper/6067fd30e91fe126bbfe55aae0677af46b0861da
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In Developmental Biology
- Toshitaka N. Suzuki
- K. Zuberbühler
- Brandon C. Wheeler
- D. Cheney
- R. Seyfarth
- R. Magrath
- Pamela M. Fallow
- Daniel T. Blumstein
In Ecology
- Toshitaka N. Suzuki
- K. Zuberbühler
- Pamela M. Fallow
- R. Magrath
- Brandon C. Wheeler
- J. Gardner
- B. Pitcher
- J. Welbergen
In Ecology, Evolution, Behavior and Systematics
- Toshitaka N. Suzuki
- K. Zuberbühler
- Brandon C. Wheeler
- Pamela M. Fallow
- R. Magrath
- D. Cheney
- R. Seyfarth
- J. Gardner
Citations in the corpus
- Wild tree squirrels respond with multisensory enhancement to conspecific robot alarm behaviour. (2009, neutral): “There may be cases, however, in which multicomponent alarm signals transmit new messages, such as the multiple audio components of chickadee alarm calls (Templeton et al. 2005).”
- Alarm calls of tufted titmice convey information about predator size and threat (2010, methodology): “…chickadees increase the duration of the ‘dee’ section (i.e., all D-notes) of their ‘‘chick-a-dee’’ call, shorten the duration of the first D-note, and shorten the intervals between the first and second D-notes of their alarm calls in response to high-threat predators (Templeton et al. 2005).”
- The central importance of information in studies of animal communication. (2010, background): “Playback experiments indicate that listeners acquire this information from the calls (Templeton et al. 2005).”
- Semantic communication in birds: evidence from field research over the past two decades (2016, background): “Interestingly, this rule seems to be widespread in a variety of avian taxa, including Paridae (Templeton et al. 2005), Phasianidae (Wilson and Evans 2012), and Corvidae (Ellis 2008; Yorzinski and Vehrencamp 2009).”
- Food-associated vocalizations in mammals and birds: what do these calls really mean? (2012, background): “…2009), as well as in bird and other mammalian species, such as fowl, Gallus gallus (Evans & Marler 1994; Evans & Evans 1999), ravens, Corvus corvax (Bugnyar et al. 2001), black-capped chickadees, Poecile atricapillus (Templeton et al. 2005) and meerkats, Suricata suricatta (Manser et al. 2001).”
- A mutual understanding? Interspecific responses by birds to each other's aerial alarm calls (2007, background): “We believe that such comparisons are important, given avian alarm calls can differ in subtly different contexts (e.g., Klump and Curio 1983; Bayly and Evans 2003; Leavesley and Magrath 2005; Templeton et al. 2005), and birds can respond differently to subtly different alarm calls (e.”
- Eavesdropping on other species: mutual interspecific understanding of urgency information in avian alarm calls (2010, background): “…urgency in their alarm calls (Klump & Curio 1983; Ficken 1990; Manser 2001; Müller & Manser 2008), but signalling greater danger with a greater number of elements per call or unit time seems to be common (Haftorn 1993; Leavesley & Magrath 2005; Templeton et al. 2005; Müller & Manser 2008).”
- Referential mobbing calls elicit different predator-searching behaviours in Japanese great tits (2012, background): “…and titmice alter the number of ‘dee’ notes in ‘chick-a-dee’ mobbing calls according to predator size, and this variation represents urgency-based signals that elicit different degrees of mobbing response in their flockmates (Templeton et al. 2005; Soard & Ritchison 2009; Courter & Ritchison 2010).”
- Antipredator calls of tufted titmice and interspecific transfer of encoded threat information (2012, methodology): “…strong evidence that within the Paridae, significant variation in chick-a-dee mobbing call structure clearly conveys perceived threat levels (Templeton et al. 2005; Soard and Ritchison 2009; Sieving et al. 2010; Courter and Ritchison 2010) and, in turn, these perceptions can be accurately…”
- Reed warblers discriminate cuckoos from sparrowhawks with graded alarm signals that attract mates and neighbours (2008, background): “Several studies in birds and mammals have shown that antipredator calls can convey information about predator category (e.g. Seyfarth et al. 1980; Pereira & Macedonia 1991; Clemmons & Lambrechts 1992; Zuberb} uhler et al. 1997; Templeton et al. 2005), the immediacy of the threat (e.”
- ‘Chick-a-dee’ calls of Carolina chickadees convey information about degree of threat posed by avian predators (2009, methodology): “Following the protocol of Templeton et al. (2005), we also conducted experiments to determine whether the mobbing behaviour of Carolina chickadees varied when ‘chicka-dee’ calls previously given in response to different predators were played back over speakers.”
- Selection for and against vocal learning in birds and mammals (2006, background): “The later includes humans of course, as well as African Grey parrots (Pepperberg 1999) and possibly black capped chickadee calls in reference to predator size (Templeton et al. 2005).”
- What do animal signals mean (2009, background): “…& Meagher 1998; chickens, Gallus gallus domesticus: Evans et al. 1993; Evans & Evans 1999, 2007; Smith & Evans 2009; chickadees, Poecile atricapillus: Templeton et al. 2005; ravens, Corvus corax: Bugnyar et al. 2001) and additional organizational properties of language (e.g. syntax: Zuberbühler…”
- Sound familiar? Acoustic similarity provokes responses to unfamiliar heterospecific alarm calls (2011, background): “1993), how urgent it is (Leavesley and Magrath 2005; Templeton et al. 2005), or a combination of these types of information (Manser et al.”
- Chapter 8 Survivor Signals (2009, background): “atricapilla), the acoustic features of predator calls vary with the size of the predator, and receivers appear to understand the implications of the acoustic differences (Templeton et al., 2005).”