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PUBLICATIONS

Peer-reviewed Journal Articles

in review

(40)  Hubancheva A, Senderov V, Nowotny M, Schöneich S, Goerlitz HR: Bush-crickets show lifelong flexibility in courtship signals to match predation threat.   [free pre-print]

(39)  Iturralde-Polit P, Araya-Salas M, Goerlitz HR* [*joint senior author] , Chaverri G*: Variation in echolocation call emission of Neotropical insect-eating bats in response to shifting ambient temperatures

2023

(38)  Lewaznik D*, Ratcliffe J*, Etzler E, Goerlitz HR** [**joint senior author] & Jacobsen L** (online): Stealth-echolocation in aerial-hawking bats reflects a history of substrate-gleaning. Current Biology 33(23): 2508-5214

(37)  de Framond L, Beleyur T, Lewanzik D*, Goerlitz HR* (2023)Calibrated microphone array recordings reveal that a gleaning bat emits low-intensity echolocation calls even in open-space habitat. J Exp Biol 226(18): jeb245801.  [free full text]   [pdf]

(36)  Hubanchenva A, Bozicevic V, Moriniere J*, Goerlitz HR* (2023): DNA metabarcoding data from faecal samples of the lesser (Myotis blythii) and the greater (Myotis myotis) mouse-eared bats from Bulgaria. Metabarcoding & Metagenomics 7:121–134.   [free full text]   [pdf]

(35)  de Framond L, Reininger V, Goerlitz HR (2023): Temperate bats may alter calls to partially compensate for weather-induced changes in detection distance. J Acoust Soc Am 153:5: 2867.   [free full text]   [pdf]   [Scilight Lay Summary]

(34)  Stidsholt L, Hubancheva A, Greif S, Goerlitz HR, Johnson M, Yovel Y & Madsen PT (2023): Echolocating bats prefer a high risk-high gain foraging strategy to increase prey profitability. eLife 12:e84190.   [free full text]

2021
(33)  Stidsholt L, Johnson M, Goerlitz HR & Madsen PT (2021): On-board tags show that echolocating bats decouple sound production from wingbeats to increase sensory flow during prey capture in the wild. iScience 24(8): 102896.   [free full text]   [pdf]

(32)  Stidsholt L, Greif S, Goerlitz HR, Beedholm K, Macaulay J, Johnson M & Madsen PT (2021): Hunting bats adjust their echolocation to receive weak prey echoes for clutter reduction. Science Advances 7(10): eabf1367.   [free full text]   [pdf]

(31)  Voigt CC, Russo D & Runkel V & Goerlitz HR (2021): Limitations of acoustic monitoring at wind turbines to evaluate fatality risk of bats. Mammal Review, DOI: 10.1111/mam.12248.   [free full text]   [pdf]


(30)  Lewanzik D & Goerlitz HR (2021): Task-dependent vocal adjustments to optimize biosonar-based information acquisition. Journal of Experimental Biology 224(1): jeb234815.   [full text]
 
2020
(29)  Gomes D & Goerlitz HR (2020): Individual differences show that only some bats can cope with noise-induced masking and distraction. PeerJ 8: e10551.   [free full text]   [pdf]

(28)  Hügel T & Goerlitz HR (2020): Light might suppress both types of sound-evoked antipredator flight in moths. Ecology and Evolution 10(23): 13134-13142.   [free full text]   [pdf]

(27)  Goerlitz HR*, ter Hofstede HM* & Holderied WM (2020): Neural representation of bat predation risk and evasive flight in moths: a modelling approach. Journal of Theoretical Biology 486: 110082.   [full text]

(26)  Straka T*, Schultz S*, Greif S*, Goerlitz HR** [**joint senior author] & Voigt CC** (2020): The effect of cave illumination on bats. Global Ecology and Conservation 21: e00808 [free full text]   [pdf]

2019       
(25)  Beleyur T & Goerlitz HR (2019): Modelling active sensing reveals continued echo detection even in large groups of bats. PNAS 116(52): 26662-26668.

(24)  Hügel T & Goerlitz HR (2019): Species-specific strategies increase unpredictability of escape flight in eared moths. Functional Ecology 33(9): 1674-1683.

(23)  Batstone K, Flood G, Beleyur T, Larsson V, Goerlitz HR, Oskarsson M, Åström K (2019): Robust self-calibration of constant offset time-difference-of-arrival. ICASSP 2019 – 2019 IEEE International Conference on Acoustics, Speech, and Signal Processing, 4410-4414.

(22)  Lewanzik D, Sundaramurthy AK & Goerlitz HR (2019): Insectivorous bats integrate social information about species identity, conspecific activity and prey abundance to estimate the cost-benefit ratio of interactions. Journal of Animal Ecology 88(10): 1462-1473.

(21)  Baier AL, Wiegrebe L* & Goerlitz HR* (2019): Echo-imaging exploits an environmental high-pass filter to access spatial information with a non-spatial sensor. iScience 14: 335-344.

2018
(20)  Egert-Berg K*, Hurme E*, Greif S*, Goldstein A, Harten L, Herrera-M LG, Flores-Martinez JJ, Valdés AT, Jonston DS, Eitan O, Borissov I, Shipley JR, Medellin RA, Wilkinson GS, Goerlitz HR, Yovel Y (2018): Resource ephemerality drives social foraging in bats. Current Biology 28(22): 3667-3673.

(19)  Goerlitz HR (2018): Weather conditions determine attenuation and speed of sound: environmental limitations for monitoring and analysing bat echolocation. Ecology and Evolution 8(10): 5090-5100.

(18)  Lattenkamp EZ, Kaučič R, Kaiser S, Großmann M, Koselj K* & Goerlitz HR* (2018): Environmental acoustic cues guide the biosonar attention of a highly specialised echolocator. Journal of Experimental Biology 221(8): jeb165696.

(17)  Lewanzik D & Goerlitz HR (2018): Continued source level reduction during attack in the low-amplitude bat Barbastella barbastellus prevents moth evasive flight. Functional Ecology 32(5): 1251-1261.

2017
(16)  Hügel T, van Meir V, Munoz-Meneses A, Clarin B-M, Siemers BM & Goerlitz HR (2017): Does similarity in call structure or foraging ecology explain interspecific information transfer in wild Myotis bats? Behavioral Ecology and Sociobiology 71: 168.


2015
(15)  Luo L, Goerlitz HR, Brumm H & Wiegrebe L (2015): Linking the sender to the receiver: vocal adjustments by bats to maintain signal detection in noise. Scientific Reports 5: 18556.


2014
(14)  Luo L, Koselj K, Zsebok S, Siemers BM & Goerlitz HR (2014): Global warming alters sound transmission: differential impacts on the prey detection ability of echolocating bats. The Journal of the Royal Society Interface 11: 20130961.


(13)  Clarin BM, Bitzilekis E, Siemers BM & Goerlitz HR (2014): Personal messages reduce vandalism and theft of unattended scientific equipment. Methods in Ecology and Evolution 5(2): 125-131.

(12)  Clare EL, Goerlitz HR, Drapeau VA, Holderied MW, Adams AM, Nagel J, Dumont ER, Hebert PDN & Fenton MB (2014): Trophic niche flexibility in Glossophaga soricina: how a nectar seeker sneaks an insect snack. Functional Ecology 28(3): 632-641.

2013
(11)   ter Hofstede HM*, Goerlitz HR* [joint first author], Ratcliffe JM, Holderied MW** & Surlykke A** (2013): The simple ears of noctuoid moths are finely tuned to the calls of their sympatric bat community. Journal of Experimental Biology 216: 3954-3962.


(10)   Dorado-Correa AM, Goerlitz HR & Siemers BM (2013): Interspecific acoustic recognition in two European bat communities. Frontiers in Physiology 4: 192.

2012
(9)  Goerlitz HR*, Genzel D* & Wiegrebe L (2012): Bats’ avoidance of real and virtual objects: implications for the sonar coding of object size. Behavioural Processes 89(1): 61-67.


2011
(8)  ter Hofstede HM*, Goerlitz HR* [joint first author], Montealegre-Z F., Robert D & Holderied MW (2011): Tympanal mechanics and neural responses in the ears of a noctuid moth. Naturwissenschaften, 98(12): 1057-1061.


2010
(7)  Goerlitz HR*, ter Hofstede HM*, Zeale MRK*, Jones G & Holderied MW (2010): An aerial-hawking bat uses stealth echolocation to counter moth hearing. Current Biology 20(17): 1568–1572.


(6)  Goerlitz HR, Geberl C & Wiegrebe L (2010): Sonar detection of jittering real targets in a free-flying bat. Journal of the Acoustical Society of America 128(3): 1467–1475.

2008
(5)  Goerlitz HR, Greif S & Siemers BM (2008): Cues for acoustic detection of prey: insect rustling sounds and the influence of walking substrate. Journal of Experimental Biology 211(17): 2799–2806.


(4)  Goerlitz HR, Hübner M & Wiegrebe L (2008): Comparing passive and active hearing: Spectral analysis of transient sounds in bats. Journal of Experimental Biology 211(12): 1850–1858.

2007
(3)  Siemers BM, Goerlitz HR, Robsomanitrandrasana E, Piep M, Ramanamanjato J-B, Rakotondravony D, Ramilijaona O & Ganzhorn JU (2007): Sensory basis of food detection in wild Microcebus murinus. International Journal of Primatology 28(2): 291–304.


(2)  Goerlitz HR & Siemers BM (2007): Sensory ecology of prey rustling sounds: acoustical features and their classification by wild Grey Mouse Lemurs. Functional Ecology 21(1): 143–153.

2003
(1)  Schill RO, Görlitz HR & Köhler H-R (2003): Laboratory simulation of a mining accident: acute toxicity, hsc/hsp70 response, and recovery from stress in Gammarus fossarum (Crustacea, Amphipoda) exposed to a pulse of cadmium. Biometals 16(3): 391–401.


 

Habilitation

2021:   Goerlitz HR (2021): Multi-species Acoustic Information Networks: from Neurons to Predator-Prey Communities. Habilitation thesis for the Venia Legendi in Zoology. Under evaluation at the Faculty for Biology, LMU Munich

Dissertation

2008:   Goerlitz HR (2008): Perceptual strategies in active and passive hearing of neotropical bats. Dissertation, Faculty for Biology, LMU Munich

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