* Nishizawa H, Narazaki T, Fukuoka T, Sato K, Hamabata T, Kinoshita M, Arai N (2014b) Juvenile green turtles on the northern edge of their range: mtDNA evidence of long-distance westward dispersals in the northern Pacific Ocean. Endang Species Res 24:171–179

* Nordmoe ED, Sieg AE, Sutherland PR, Spotila JR, Paladino FV, Reina RD (2004) Nest site fidelity of leatherback turtles at Playa Grande, Costa Rica. Anim Behav 68: 387–394

* Norton TM, Cox S, Nelson SE Jr, Kaylor M, Thomas R, Hupp A, Sladky KK (2015) Pharmacokinetics of tramadol and O-desmethyltramadol in loggerhead sea turtles (*Caretta caretta*). J Zoo Wildl Med 46:262–265

* Orós J, González-Diaz OM, Monagas P (2009) High levels of polychlorinated biphenyls in tissues of Atlantic turtles stranded in the Canary Islands, Spain. Chemosphere 74: 473–478.

* Orós J, Monagas P, Calabuig P, Luzardo O, Camacho M (2013) Pansteatitis associated with high levels of polychlorinated biphenyls in a wild loggerhead sea turtle *Caretta caretta*. Dis Aquat Org 102:237–242

* Ortiz N, Mangel JF, Wang J, Alfaro-Shiguetó J and others (2016) Reducing green turtle bycatch in small-scale fisheries using illuminated gillnets: the cost of saving a sea turtle. Mar Ecol Prog Ser 545:251–259

* Osorio A AF, Pelaez-Zapata DS, Guerrero-Gallego J, Alvarez-Silva O, Osorio-Cano JD, Toro FM, Giraldo A (2014) Hidrodinámica aplicada a la gestión y la conservación de ecosistemas marinos y costeros: Isla Gorgona, Océano Pacífico Colombiano. Rev Biol Trop 62:133–147

* Page-Karjian A, Torres F, Zhang J, Rivera S and others (2012) Presence of chelonid fibropapilloma-associated herpesvirus in tumored and non-tumored green turtles, as detected by polymerase chain reaction, in endemic and non-endemic aggregations, Puerto Rico. Springer plus 1:35

* Page-Karjian A, Norton TM, Krimer P, Groner M, Nelson SE, Gottdenker NL (2014) Factors influencing survivorship of rehabilitating green sea turtles (*Chelonia mydas*) with fibropapillomatosis. J Zoo Wildl Med 45:507–519

* Page-Karjian A, Norton TM, Harms C, Mader D and others (2015a) Case descriptions of fibropapillomatosis in rehabilitating loggerhead sea turtles *Caretta caretta* in the southeastern USA. Dis Aquat Org 115:185–191

* Page-Karjian A, Norton TM, Ritchie B, Brown C and others (2015b) Quantifying chelonid herpesvirus 5 in symptomatic and asymptomatic rehabilitating green sea turtles. Endang Species Res 28:135–146

* Page-Karjian A, Rivera S, Torres F, Diez C, Moore D, Van Dam R, Brown C (2015c) Baseline blood values for healthy free-ranging green sea turtles (*Chelonia mydas*) in Puerto Rico. Comp Clin Pathol 24:567–573

* Pajuelo M, Bjorndal KA, Reich KJ, Vander Zanden HB, Hawkes LA, Bolten AB (2012) Assignment of nesting loggerhead turtles to their foraging areas in the Northwest Atlantic using stable isotopes. Ecosphere 3:art89

* Parga ML, Pons M, Andraka S, Rendon L and others (2015) Hooking locations in sea turtles incidentally captured by artisanal longline fisheries in the Eastern Pacific Ocean. Fish Res 164:231–237

* Parsons ECM, Baulch S, Bechshoft T, Bellazzi G and others (2015) Key research questions of global importance for cetacean conservation. Endang Species Res 27:113–118

* Patel SH, Morreale SJ, Panagopoulou A, Bailey H and others (2015a) Changepoint analysis: a new approach for

revealing animal movements and behaviors from satellite telemetry data. Ecosphere 6:art291

* Patel SH, Panagopoulou A, Morreale SJ, Kilham SS and others (2015b) Differences in size and reproductive output of loggerhead turtles *Caretta caretta* nesting in the eastern Mediterranean Sea are linked to foraging site. Mar Ecol Prog Ser 535:231–241

* Patino-Martinez J, Marco A, Quinones L, Hawkes LA (2014) The potential future influence of sea level rise on leatherback turtle nests. J Exp Mar Biol Ecol 461:116–123

* Patricio AR, Velez-Zuazo X, Diez CE, Van Dam R, Sabat AM (2011) Survival probability of immature green turtles in two foraging grounds at Culebra, Puerto Rico. Mar Ecol Prog Ser 440:217–227

* Patrício R, Diez CE, van Dam RP (2014) Spatial and temporal variability of immature green turtle abundance and somatic growth in Puerto Rico. Endang Species Res 23: 51–62

* Patrício AR, Diez CE, van Dam RP, Godley BJ (2016) Novel insights into the dynamics of green turtle fibropapillomatosis. Mar Ecol Prog Ser 547:247–255

* Peckham SH, Lucero-Romero J, Maldonado-Diaz D, Rodrigo-Sanchez A, Senko J, Wojakowski M, Gaos A (2016) Buoyless nets reduce sea turtle bycatch in coastal net fisheries. Conserv Lett 9:114–121

* Pelc RA, Max LM, Norden W, Roberts S, Silverstein R, Wilding SR (2015) Further action on bycatch could boost United States fisheries performance. Mar Policy 56:56–60

* Pendoley K, Kamrowski RL (2015) Influence of horizon elevation on the sea-finding behaviour of hatchling flatback turtles exposed to artificial light glow. Mar Ecol Prog Ser 529:279–288

* Pendoley KL, Bell CD, McCracken R, Ball KR and others (2014a) Reproductive biology of the flatback turtle *Nattator depressus* in Western Australia. Endang Species Res 23:115–123

* Pendoley KL, Schofield G, Whittock PA, Ierodionconou D, Hays GC (2014b) Multi-species benefits of a coastal marine turtle migratory corridor connecting Australian MPAs. Mar Biol 161:1455–1466

* Perrault J, Wyneken J, Thompson LJ, Johnson C, Miller DL (2011) Why are hatching and emergence success low? Mercury and selenium concentrations in nesting leatherback sea turtles (*Dermochelys coriacea*) and their young in Florida. Mar Pollut Bull 62:1671–1682

* Perrault JR, Miller DL, Eads E, Johnson C, Merrill A, Thompson LJ, Wyneken J (2012) Maternal health status correlates with nest success of leatherback sea turtles (*Dermochelys coriacea*) from Florida. PLOS ONE 7: e31841

* Perrault JR, Schmid JR, Walsh CJ, Yordy JE, Tucker AD (2014) Brevetoxin exposure, superoxide dismutase activity and plasma protein electrophoretic profiles in wild-caught Kemp's ridley sea turtles (*Lepidochelys kempii*) in southwest Florida. Harmful Algae 37:194–202

* Peterson CH, Fegley SR, Voss CM, Marschhauser SR, Vandusen BM (2013) Conservation implications of density-dependent predation by ghost crabs on hatchling sea turtles running the gauntlet to the sea. Mar Biol 160:629–640

* Petitet R, Avens L, Castilhos JC, Kinas PG, Bugoni L (2015) Age and growth of olive ridley sea turtles *Lepidochelys olivacea* in the main Brazilian nesting ground. Mar Ecol Prog Ser 541:205–218

* Pfaller JB, Limpus CJ, Bjorndal KA (2009) Nest site selection in individual loggerhead turtles and consequences for
doomed-egg relocation. Conserv Biol 23:72-80

<figure><img src="image_263.png" /></figure>

Pfaller JB, Bjorndal KA, Chaloupka M, Williams KL, Frick MG, Bolten AB (2013) Accounting for imperfect detection is critical for inferring marine turtle nesting population trends. PLOS ONE 8:e62326

<figure><img src="image_264.png" /></figure>

Phillips KP, Jorgensen TH, Jolliffe KG, Jolliffe SM, Henwood J, Richardson DS (2013) Reconstructing paternal genotypes to infer patterns of sperm storage and sexual selection in the hawksbill turtle. Mol Ecol 22:2301-2312

<figure><img src="image_265.png" /></figure>

Phillips KF, Mansfield KL, Die DJ, Addison DS (2014a) Survival and remigration probabilities for loggerhead turtles (*Caretta caretta*) nesting in the eastern Gulf of Mexico. Mar Biol 161:863-870

Phillips KP, Jorgensen TH, Jolliffe KG, Richardson DS (2014b) Potential inter-season sperm storage by a female hawksbill turtle. Mar Turtle News 140:13-14

<figure><img src="image_266.png" /></figure>

Phillips KP, Mortimer JA, Jolliffe KG, Jorgensen TH, Richardson DS (2014c) Molecular techniques reveal cryptic life history and demographic processes of a critically endangered marine turtle. J Exp Mar Biol Ecol 455:29-37

Phillott AD, Parmenter CJ (2014) Fungal colonization of green sea turtle (*Chelonia mydas*) nests is unlikely to affect hatchling condition. Herpetol Conserv Biol 9:297-301

<figure><img src="image_267.png" /></figure>

Pike DA (2013a) Climate influences the global distribution of sea turtle nesting. Glob Ecol Biogeogr 22:555-566

<figure><img src="image_268.png" /></figure>

Pike DA (2013b) Forecasting range expansion into ecological traps: climate-mediated shifts in sea turtle nesting beaches and human development. Glob Change Biol 19: 3082-3092

<figure><img src="image_269.png" /></figure>

Pike DA (2014) Forecasting the viability of sea turtle eggs in a warming world. Glob Change Biol 20:7-15

<figure><img src="image_270.png" /></figure>

Pikesley SK, Broderick AC, Cejudo D, Coyne MS and others (2015) Modelling the niche for a marine vertebrate: a case study incorporating behavioural plasticity, proximate threats and climate change. Ecography 38:803-812

<figure><img src="image_271.png" /></figure>

Pilcher NJ, Antonopoulou M, Perry L, Abdel-Moati MA and others (2014) Identification of important sea turtle areas (ITAs) for hawksbill turtles in the Arabian Region. J Exp Mar Biol Ecol 460:89-99

<figure><img src="image_272.png" /></figure>

Pilcher NJ, Al-Maslamani I, Williams J, Gasang R, Chikhi A (2015) Population structure of marine turtles in coastal waters of Qatar. Endang Species Res 28:163-174

<figure><img src="image_273.png" /></figure>

Pirhalla DE, Sheridan SC, Ransibrahmanakul V, Lee CC (2015) Assessing cold-snap and mortality events in South Florida coastal ecosystems: development of a biological cold stress index using satellite SST and weather pattern forcing. Estuar Coasts 38:2310-2322

<figure><img src="image_274.png" /></figure>

Piroddi C, Coll M, Steenbeek J, Moy DM, Christensen V (2015) Modelling the Mediterranean marine ecosystem as a whole: addressing the challenge of complexity. Mar Ecol Prog Ser 533:47-65

<figure><img src="image_275.png" /></figure>

Plot V, Criscuolo F, Zahn S, Georges JY (2012) Telomeres, age and reproduction in a long-lived reptile. PLOS ONE 7:e40855.

<figure><img src="image_276.png" /></figure>

Plot V, de Thoisy B, Georges JY (2015) Dispersal and dive patterns during the post-nesting migration of olive ridley turtles from French Guiana. Endang Species Res 26: 221-234

<figure><img src="image_277.png" /></figure>

Poli C, Lopez LCS, Mesquita DO, Saska C, Mascarenhas R (2014) Patterns and inferred processes associated with sea turtle strandings in Paraíba State, Northeast Brazil. Braz J Biol 74:283-289

<figure><img src="image_278.png" /></figure>

Poli C, Mesquita DO, Saska C, Mascarenhas R (2015) Plastic ingestion by sea turtles in Paraíba State, Northeast Brazil. Iheringia Ser Zool 105:265-270

<figure><img src="image_279.png" /></figure>

Pons M, Domingo A, Sales G, Fiedler FN, Miller P, Giffoni B, Ortiz M (2010) Standardization of CPUE of loggerhead sea turtle (*Caretta caretta*) caught by pelagic longliners in the southwestern Atlantic Ocean. Aquat Living Resour 23:65-75

<figure><img src="image_280.png" /></figure>

Prieto-Torres DA, Hernandez-Rangel J (2015) Breeding biology and hatching success of *Chelonia mydas* (Tectudines: Cheloniidae) in Aves Island Wildlife Refuge, Venezuela, during the 2010 reproductive season. Rev Biol Trop 63:1059-1070

<figure><img src="image_281.png" /></figure>

Prieto-Torres DA, Hernandez JL, Henriquez AR, Alvarado MC, Davila MJ (2013) Blood biochemistry of the breeding population of green turtles (*Chelonia mydas*) in the Aves Island Wildlife Refuge, Venezuela. S Am J Herpetol 8:147-154

Prior B, Booth DT, Limpus CJ (2016) Investigating diet and diet switching in green turtles (*Chelonia mydas*). Aust J Zool 63:365-375

<figure><img src="image_282.png" /></figure>

Proietti MC, Reisser J, Marins LF, Marcovaldi MA and others (2014a) Hawksbill x loggerhead sea turtle hybrids at Bahia, Brazil: where do their offspring go? PeerJ 2:e255

<figure><img src="image_283.png" /></figure>

Proietti MC, Reisser J, Marins LF, Rodriguez-Zarate C and others (2014b) Genetic structure and natal origins of immature hawksbill turtles (*Eretmochelys imbricata*) in Brazilian waters. PLOS ONE 9:e88746

<figure><img src="image_284.png" /></figure>

Prosdocimi L, Dutton PH, Albareda D, Remis MI (2014) Origin and genetic diversity of leatherbacks (*Dermochelys coriacea*) at Argentine foraging grounds. J Exp Mar Biol Ecol 458:13-19

<figure><img src="image_285.png" /></figure>

Prosdocimi L, Bugoni L, Albareda D, Remis MI (2015) Are stocks of immature loggerhead sea turtles always mixed? J Exp Mar Biol Ecol 466:85-91

<figure><img src="image_286.png" /></figure>

Pullin A, Knight T (2001) Effectiveness in conservation practice: pointers from medicine and public health. Conserv Biol 15:50-54

<figure><img src="image_287.png" /></figure>

Pullin A, Knight T (2009) Doing more good than harm – building an evidence-base for conservation and environmental management. Biol Conserv 142:931-934

<figure><img src="image_288.png" /></figure>

Pullin A, Knight T, Stone D, Charman K (2004) Do conservation managers use scientific evidence to support their decision-making? Biol Conserv 119:245-252

<figure><img src="image_289.png" /></figure>

Putman NF, Mansfield KL (2015) Direct evidence of swimming demonstrates active dispersal in the sea turtle 'lost years.'. Curr Biol 25:1221-1227

<figure><img src="image_290.png" /></figure>

Putman NF, Naro-Maciel E (2013) Finding the 'lost years' in green turtles: insights from ocean circulation models and genetic analysis. Proc R Soc B 280:20131468

<figure><img src="image_291.png" /></figure>

Putman NF, Bane JM, Lohmann KJ (2010a) Sea turtle nesting distributions and oceanographic constraints on hatching migration. Proc R Soc B 277:3631-3637

<figure><img src="image_292.png" /></figure>

Putman NF, Shay TJ, Lohmann KJ (2010b) Is the geographic distribution of nesting in the Kemp's ridley turtle shaped by the migratory needs of offspring? Integr Comp Biol 50: 305-314

<figure><img src="image_293.png" /></figure>

Putman NF, Scott R, Verley P, Marsh R, Hays GC (2012a) Natal site and offshore swimming influence fitness and long-distance ocean transport in young sea turtles. Mar Biol 159:2117-2126

<figure><img src="image_294.png" /></figure>

Putman NF, Verley P, Shay TJ, Lohmann KJ (2012b) Simulating transoceanic migrations of young loggerhead sea turtles: merging magnetic navigation behavior with an ocean circulation model. J Exp Biol 215:1863-1870

<figure><img src="image_295.png" /></figure>

Putman NF, Mansfield KL, He R, Shaver DJ, Verley P (2013) Predicting the distribution of oceanic-stage Kemp's ridley sea turtles. Biol Lett 9: 20130345
<figure><img src="image_296.png" /></figure>

Putman NF, Alberto Abreu-Grobois F, Broderick AC, Ciofi C and others (2014) Numerical dispersal simulations and genetics help explain the origin of hawksbill sea turtles in Ascension Island. *J Exp Mar Biol Ecol* 450:98–108

<figure><img src="image_297.png" /></figure>

Putman NF, Abreu-Grobois FA, Iturbe-Darkistade I. Putman EM, Richards PM, Verley P (2015a) Deepwater Horizon oil spill impacts to sea turtles could span the Atlantic. *Biol Lett* 11:2015096

<figure><img src="image_298.png" /></figure>

Putman NF, Verley P, Endres CS, Lohmann KJ (2015b) Magnetic navigation behavior and the oceanic ecology of young loggerhead sea turtles. *J Exp Biol* 218:1044–1050

<figure><img src="image_299.png" /></figure>

Quinones J, Garcia-Godos I, Llapapasca M, Van Ordt F, Paredes E (2015) The black sea turtle (*Chelonia mydas agassizii*) at Lobos de Tierra Island, northern Peru: high densities in small areas. *S Am J Herpetol* 10:178–186

<figure><img src="image_300.png" /></figure>

Rafferty AR, Reina RD (2014) The influence of temperature on embryonic developmental arrest in marine and freshwater turtles. *J Exp Mar Biol Ecol* 450:91–97

<figure><img src="image_301.png" /></figure>

Rafferty AR, Santidrián Tomillo P, Spotila JR, Paladino FV, Reina RD (2011) Embryonic death is linked to maternal identity in the leatherback turtle (*Dermochelys coriacea*). *PLOS ONE* 6:e21038

<figure><img src="image_302.png" /></figure>

Rafferty AR, Evans RG, Scheelings TF, Reina RD (2013) Limited oxygen availability in utero may constrain the evolution of live-birth in reptiles. *Am Nat* 181:245–253

<figure><img src="image_303.png" /></figure>

Ramirez MD, Avens L, Seminoff JA, Goshe LR, Heppell SS (2015) Patterns of loggerhead turtle ontogenetic shifts revealed through isotopic analysis of annual skeletal growth increments. *Ecosphere* 6:art244

<figure><img src="image_304.png" /></figure>

Read AJ (2007) Do circle hooks reduce the mortality of sea turtles in pelagic longlines? A review of recent experiments. *Biol Conserv* 135:155–169

<figure><img src="image_305.png" /></figure>

Read TC, Wantiez L, Werry JM, Farman R, Petro G, Limpus CJ (2014) Migrations of green turtles (*Chelonia mydas*) between nesting and foraging grounds across the Coral Sea. *PLOS ONE* 9:e100083

<figure><img src="image_306.png" /></figure>

Red List Standards & Petitions Subcommittee (1996) *Natator depressus*. The IUCN Red List of Threatened Species 1996: e.T14363A4435952. http://dx.doi.org/10.2305/IUCN.UK.1996.RLTS.T14363A4435952.en (accessed 14 December 2016)

<figure><img src="image_307.png" /></figure>

Redfoot W, Ehrhart L (2013) Trends in size class distribution, recaptures, and abundance of juvenile green turtles (*Chelonia mydas*) utilizing a rock riprap lined embayment at Port Canaveral, Florida, USA, as developmental habitat. *Chelonian Conserv Biol* 12:252–261

<figure><img src="image_308.png" /></figure>

Rees AF, Margaritoulis D, Newman R, Riggall TE and others (2013) Ecology of loggerhead marine turtles *Caretta caretta* in a neritic foraging habitat: movements, sex ratios and growth rates. *Mar Biol* 160:519–529

Reinhold L (2015) Absence of ingested plastics in 20 necropsied sea turtles in Western Australia. *Mar Turtle Newsl* 144:13–15

Reintsma N, Young M, Salmon M (2014) Do lighthouses disrupt the orientation of sea turtle hatchlings? *Hypothesis testing with arena assays at Hillsboro Beach, Florida, USA*. *Mar Turtle Newsl* 140:1–3

<figure><img src="image_309.png" /></figure>

Reising M, Salmon M, Stapleton S (2015) Hawksbill nest site selection affects hatchling survival at a rookery in Antigua, West Indies. *Endang Species Res* 29:179–187

<figure><img src="image_310.png" /></figure>

Revuelta O, Leon YM, Balbuena JA, Broderick AC and others (2014) The value of endangered species in protected areas at risk: the case of the leatherback turtle in the Dominican Republic. *Biodivers Conserv* 23:1529–1539

<figure><img src="image_311.png" /></figure>

Revuelta O, Hawkes L, León YM, Godley BJ, Raga JA,

Tomás J (2015a) Evaluating the importance of marine protected areas for the conservation of hawksbill turtles *Eretmochelys imbricata* nesting in the Dominican Republic. *Endang Species Res* 27:169–180

<figure><img src="image_312.png" /></figure>

Revuelta O, León YM, Broderick AC, Feliz PA and others (2015b) Assessing the efficacy of direct conservation interventions: clutch protection of the leatherback marine turtle in the Dominican Republic. *Oryx* 49:677–686

<figure><img src="image_313.png" /></figure>

Richardson B (2003) Impact of aging on DNA methylation. *Ageing Res Rev* 2:245–261

<figure><img src="image_314.png" /></figure>

Richardson PB, Bruford MW, Calosso MC, Campbell LM and others (2009) Marine turtles in the Turks and Caicos Islands: remnant rookeries, regionally significant foraging stocks, and a major turtle fishery. *Chelonian Conserv Biol* 8:192–207

<figure><img src="image_315.png" /></figure>

Rings CC, Rafferty AR, Guinea ML, Reina RD (2015) The impact of extended preovipositional arrest on embryonic development and hatchling fitness in the flatback sea turtle. *Physiol Biochem Zool* 88:116–127

<figure><img src="image_316.png" /></figure>

Riskas KA, Fuentes MM, Hamann M (2016) Justifying the need for collaborative management of fisheries bycatch: a lesson from marine turtles in Australia. *Biol Conserv* 196:40–47

<figure><img src="image_317.png" /></figure>

Rivas ML, Santidrián Tomillo P, Uribeondo JD, Marco A (2015) Leatherback hatchling sea-finding in response to artificial lighting: interaction between wavelength and moonlight. *J Exp Mar Biol Ecol* 463:143–149

Robinson NJ, Figgener C (2015) Plastic straw found inside the nostril of an olive ridley sea turtle. *Mar Turtle Newsl* 147:5–6

<figure><img src="image_318.png" /></figure>

Robinson NJ, Valentine SE, Santidrián Tomillo P, Saba VS, Spotila JR, Paladino FV (2014) Multidecadal trends in the nesting phenology of Pacific and Atlantic leatherback turtles are associated with population demography. *Endang Species Res* 24:197–206

<figure><img src="image_319.png" /></figure>

Rocha Júnior JC, Pfaller JB, Corbetta R, Veríssimo L (2015) Parasitic isopods associated with sea turtles nesting in Brazil. *J Mar Biol Assoc UK* 95:973–981

<figure><img src="image_320.png" /></figure>

Rodenbusch CR, Almeida LL, Marks FS, Ataíde MW and others (2012) Detection and characterization of fibropapilloma associated herpesvirus of marine turtles in Rio Grande do Sul, Brazil. *Pesqui Vet Bras* 32:1179–1183

<figure><img src="image_321.png" /></figure>

Rodenbusch CR, Baptistotte C, Werneck MR, Pires TT and others (2014) Fibropapillomatosis in green turtles *Chelonia mydas* in Brazil: characteristics of tumors and virus. *Dis Aquat Org* 111:207–217

<figure><img src="image_322.png" /></figure>

Roe JH, Morreale SJ, Paladino FV, Shillinger GL and others (2014) Predicting bycatch hotspots for endangered leatherback turtles on longlines in the Pacific Ocean. *Proc R Soc B* 281:20132559

Rossi AS, Gattamorta MA, Prioste FES, Lima EHSM and others (2015) Fibropapillomas in a loggerhead sea turtle (*Caretta caretta*) caught in Almofala, Ceará, Brazil: histopathological and molecular characterizations. *Mar Turtle Newsl* 147:12–16

Ruggiero MG, Ferretti L, Glomski C, Pica A (2014) Erythrophagocytosis in circulating blood of loggerhead turtles *Caretta caretta*: the pitting of Heinz bodies. *J Exp Zool A* 321:144–150

<figure><img src="image_323.png" /></figure>

Ryan PG (2016) Ingestion of plastics by marine organisms. In: Takada H, Karapanagioti HK (eds) Hazardous chemicals associated with plastics in the marine environment. *Handbook of environmental chemistry*. Springer, Berlin, p 1–32

<figure><img src="image_324.png" /></figure>

Sáenz-Arroyo AC, Roberts M, Torre J, Cariño-Olvera M
(2005) Using fishers' anecdotes, naturalists' observations and grey literature to reassess marine species at risk: the case of the Gulf grouper in the Gulf of California, Mexico. Fish Fish 6:121-133

<figure><img src="image_325.png" /></figure>

Saito T, Kurita M, Okamoto H, Uchida I, Parker D, Balazs G (2015) Tracking male loggerhead turtle migrations around southwestern Japan using satellite telemetry. Chelonian Conserv Biol 14:82-87

<figure><img src="image_326.png" /></figure>

Sampson L, Payan LF, Amoroso DF, Seminoff JA, Giraldo A (2014) Intraspecific variation of the green turtle, *Chelonia mydas* (Cheloniidae), in the foraging area of Gorgona Natural National Park (Colombian Pacific). Acta Biol Colomb 19:461-470

<figure><img src="image_327.png" /></figure>

Sánchez-Sarmiento AM, Rossi S, Vilca FZ, Thijl Vanstreels RE and others (2016) Organochlorine pesticides in green sea turtles (*Chelonia mydas*) with and without fibropapillomatosis caught at three feeding areas off Brazil. J Mar Biol Assoc UK, doi:10.1017/S002531541500226X

<figure><img src="image_328.png" /></figure>

Sandbrook C, Adams WM, Büscher B, Vira B (2013) Social research and biodiversity conservation. Conserv Biol 27: 1487-1490

<figure><img src="image_329.png" /></figure>

Santidrián Tomillo P, Saba VS, Piedra R, Paladino FV, Spotila JR (2008) Effects of illegal harvest of eggs on the population decline of leatherback turtles in Las Baulas Marine National Park, Costa Rica. Conserv Biol 22: 1216-1224

<figure><img src="image_330.png" /></figure>

Santidrián Tomillo P, Oro D, Paladino FV, Piedra R, Sieg AE, Spotila JR (2014) High beach temperatures increased female-biased primary sex ratios but reduced output of female hatchlings in the leatherback turtle. Biol Conserv 176:71-79

<figure><img src="image_331.png" /></figure>

Santidrián Tomillo P, Genovart M, Paladino FV, Spotila JR, Oro D (2015a) Climate change overruns resilience conferred by temperature-dependent sex determination in sea turtles and threatens their survival. Glob Change Biol 21:2980-2988

<figure><img src="image_332.png" /></figure>

Santidrián Tomillo P, Saba VS, Lombard CD, Valiulis JM and others (2015b) Global analysis of the effect of local climate on the hatchling output of leatherback turtles. Sci Rep 5:16789

Santoro M, Morales JA, Bolanos F, Chaves G, De Stefano M (2015) Helminths of hawksbill turtle (*Eretmochelys imbricata*) from the Pacific coast of Costa Rica. Helminthologia 52:67-70

<figure><img src="image_333.png" /></figure>

Santos RG, Andrades R, Boldrini MA, Martins AS (2015a) Debris ingestion by juvenile marine turtles: an underestimated problem. Mar Pollut Bull 93:37-43

<figure><img src="image_334.png" /></figure>

Santos RG, Martins AS, Batista MB, Horta PA (2015b) Regional and local factors determining green turtle *Chelonia mydas* foraging relationships with the environment. Mar Ecol Prog Ser 529:265-277

<figure><img src="image_335.png" /></figure>

Santos AJB, Neto JXL, Vieira DHG, Neto LD and others (2016) Individual nest site selection in hawksbill turtles within and between nesting seasons. Chelonian Conserv Biol 15:109-114

<figure><img src="image_336.png" /></figure>

Sari F, Kaska Y (2015) Loggerhead sea turtle hatchling sex ratio differences between two nesting beaches in Turkey. Isr J Ecol Evol 61:115-129

<figure><img src="image_337.png" /></figure>

Sarmiento-Ramírez JM, Abella-Perez E, Phillott AD, Sim J and others (2014a) Global distribution of two fungal pathogens threatening endangered sea turtles. PLOS ONE 9:e85853

<figure><img src="image_338.png" /></figure>

Sarmiento-Ramírez JM, van der Voort M, Raaijmakers JM, Diéguez-Uribeondo J (2014b) Unravelling the microbiome of eggs of the endangered sea turtle *Eretmochelys imbricata* identifies bacteria with activity against the emerging pathogen *Fusarium falciforme*. PLOS ONE 9:e95206

<figure><img src="image_339.png" /></figure>

Sasso CR, Braun-McNeill J, Avens L, Epperly SP (2007) Summer abundance estimates of *Caretta caretta* (loggerhead turtles) in Core Sound, NC. Southeast Nat 6: 365-369

<figure><img src="image_340.png" /></figure>

Scales KL, Miller PI, Hawkes LA, Ingram SN, Sims DW, Votier SC (2014) On the front line: frontal zones as priority at-sea conservation areas for mobile marine vertebrates. J Appl Ecol 51:1575-1583

<figure><img src="image_341.png" /></figure>

Scales KL, Miller PI, Varo-Cruz N, Hodgson DJ, Hawkes LA, Godley BJ (2015) Oceanic loggerhead turtles *Caretta caretta* associate with thermal fronts: evidence from the Canary Current Large Marine Ecosystem. Mar Ecol Prog Ser 519:195-207

Schlüter A, Madrigal R (2012) The SES framework in a marine setting: methodological lessons. RMM 3:148-167

<figure><img src="image_342.png" /></figure>

Schneider GF, Dekker C (2012) DNA sequencing with nanopores. Nat Biotechnol 30:326-328

<figure><img src="image_343.png" /></figure>

Schneller AJ, Irizarry A (2014) Imaging conservation: sea turtle murals and their effect on community pro-environmental attitudes in Baja California Sur, Mexico. Ocean Coast Manage 89:100-111

<figure><img src="image_344.png" /></figure>

Schofield G, Dimadi A, Fossette S, Katselidis KA and others (2013) Satellite tracking large numbers of individuals to infer population level dispersal and core areas for the protection of an endangered species. Divers Distrib 19: 834-844

<figure><img src="image_345.png" /></figure>

Schofield G, Scott R, Katselidis KA, Mazaris AD, Hays GC (2015) Quantifying wildlife-watching ecotourism intensity on an endangered marine vertebrate. Anim Conserv 18:517-528

<figure><img src="image_346.png" /></figure>

Schroeder AL, Metzger KJ, Miller A, Rhen T (2016) A novel candidate gene for temperature-dependent sex determination in the common snapping turtle. Genetics 203: 557-571

<figure><img src="image_347.png" /></figure>

Schumacher VL, Mangold B, Lenzycki J, Hinckley L, Sutton DA, Frasca S Jr (2014) Occurrence of fruiting structures allows determination of *Purpureocillium lilacinum* as an inciting agent of pleuritis and pneumonia in a loggerhead sea turtle (*Caretta caretta*) by histopathologic correlation to culture. Med Mycol Case Rep 6:42-45

<figure><img src="image_348.png" /></figure>

Schuyler Q, Hardesty BD, Wilcox C, Townsend KA (2014a) Global analysis of anthropogenic debris ingestion by sea turtles. Conserv Biol 28:129-139

<figure><img src="image_349.png" /></figure>

Schuyler QA, Wilcox C, Townsend K, Hardesty BD, Marshall NJ (2014b) Mistaken identity? Visual similarities of marine debris to natural prey items of sea turtles. BMC Ecol 14:14

<figure><img src="image_350.png" /></figure>

Schuyler QA, Wilcox C, Townsend K, Wedemeyer-Strombel KR, Balazs G, van Sebille E, Hardesty BD (2016) Risk analysis reveals global hotspots for marine debris ingestion by sea turtles. Glob Change Biol 22:567-576

<figure><img src="image_351.png" /></figure>

Schwanz LE, Cordero GA, Charnov EL, Janzen FJ (2016) Sex-specific survival to maturity and the evolution of environmental sex determination. Evolution 70: 329-341

<figure><img src="image_352.png" /></figure>

Scott R, Marsh R, Hays GC (2012a) A little movement oriented to the geomagnetic field makes a big difference in strong flows. Mar Biol 159:481-488

<figure><img src="image_353.png" /></figure>

Scott R, Marsh R, Hays GC (2012b) Life in the really slow lane: loggerhead sea turtles mature late relative to other reptiles. Funct Ecol 26:227-235

<figure><img src="image_354.png" /></figure>

Scott R, Hodgson DJ, Witt MJ, Coyne MS and others (2012c)
Global analysis of satellite tracking data shows that adult green turtles are significantly aggregated in Marine Protected Areas. Glob Ecol Biogeogr 21:1053–1061

<figure><img src="image_355.png" /></figure>

Scott R, Biastoch A, Roder C, Stiebens VA, Eizaguirre C (2014a) Nano-tags for neonates and ocean-mediated swimming behaviours linked to rapid dispersal of hatchling sea turtles. Proc R Soc B 281:20141209

<figure><img src="image_356.png" /></figure>

Scott R, Marsh R, Hays GC (2014b) Ontogeny of long distance migration. Ecology 95:2840–2850

Sellera FP, Sabino CP, Fernandes LT, Pogliani FC and others (2014) Green turtle (*Chelonia mydas*) cutaneous fibropapillomatosis treatment by photodynamic therapy. Mar Turtle Newsl 142:6–10

<figure><img src="image_357.png" /></figure>

Seminoff JA, Shanker K (2008) Marine turtles and IUCN Red Listing: a review of the process, the pitfalls, and novel assessment approaches. J Exp Mar Biol Ecol 356:52–68

<figure><img src="image_358.png" /></figure>

Seminoff JA, Benson SR, Arthur KE, Eguchi T and others (2012) Stable isotope tracking of endangered sea turtles: validation with satellite telemetry and δ¹⁵N analysis of amino acids. PLOS ONE 7:e37403

<figure><img src="image_359.png" /></figure>

Seminoff JA, Eguchi T, Carretta J, Allen CD and others (2014) Loggerhead sea turtle abundance at a foraging hotspot in the eastern Pacific Ocean: implications for at-sea conservation. Endang Species Res 24:207–220

Seminoff JA, Allen CD, Balazs GH, Dutton PH and others (2015) Status review of the green turtle (*Chelonia mydas*) under the Endangered Species Act. NOAA Tech Memo NOAA-NMFS-SWFSC-539

<figure><img src="image_360.png" /></figure>

Senko J, Mancini A, Seminoff JA, Koch V (2014a) Bycatch and directed harvest drive high green turtle mortality at Baja California Sur, Mexico. Biol Conserv 169:24–30

<figure><img src="image_361.png" /></figure>

Senko J, White ER, Heppell SS, Gerber LR (2014b) Comparing bycatch mitigation strategies for vulnerable marine megafauna. Anim Conserv 17:5–18

<figure><img src="image_362.png" /></figure>

Shamblin BM, Bjorndal KA, Bolten AB, Hillis-Starr ZM, Lundgren I, Naro-Maciel E, Nairn CJ (2012a) Mitogenomic sequences better resolve stock structure of southern Greater Caribbean green turtle rookeries. Mol Ecol 21:2330–2340

<figure><img src="image_363.png" /></figure>

Shamblin BM, Bolten AB, Bjorndal KA, Dutton PH and others (2012b) Expanded mitochondrial control region sequences increase resolution of stock structure among North Atlantic loggerhead turtle rookeries. Mar Ecol Prog Ser 469:145–160

<figure><img src="image_364.png" /></figure>

Shamblin BM, Bolten AB, Abreu-Grobois FA, Bjorndal KA and others (2014) Geographic patterns of genetic variation in a broadly distributed marine vertebrate: new insights into loggerhead turtle stock structure from expanded mitochondrial DNA sequences. PLOS ONE 9:e85956

<figure><img src="image_365.png" /></figure>

Shamblin BM, Bagley DA, Ehrhart LM, Desjardin NA and others (2015a) Genetic structure of Florida green turtle rookeries as indicated by mitochondrial DNA control region sequences. Conserv Genet 16:673–685

<figure><img src="image_366.png" /></figure>

Shamblin BM, Dutton PH, Bjorndal KA, Bolten AB and others (2015b) Deeper mitochondrial sequencing reveals cryptic diversity and structure in Brazilian green turtle rookeries. Chelonian Conserv Biol 14:167–172

Shamblin BM, Bagley DA, Ehrhart LM, Nairn CJ (2015c) Mitochondrial repeat haplotypes suggest local origins for CM-A13 green turtles foraging in Florida. Mar Turtle Newsl 146:11–13

Shaver DJ, Caillouet CW Jr (2015) Reintroduction of Kemp's ridley (*Lepidochelys kempii*) sea turtle to Padre Island National Seashore, Texas and its connection to head-

starting. Herpetol Conserv Biol 10:378–435

<figure><img src="image_367.png" /></figure>

Shaver DJ, Hart KM, Fujisaki I, Rubio C and others (2016) Migratory corridors of adult female Kemp's ridley turtles in the Gulf of Mexico. Biol Conserv 194:158–167

<figure><img src="image_368.png" /></figure>

Shimada T, Aoki S, Kameda K, Hazel J, Reich K, Kamezaki N (2014) Site fidelity, ontogenetic shift and diet composition of green turtles *Chelonia mydas* in Japan inferred from stable isotope analysis. Endang Species Res 25: 151–164

<figure><img src="image_369.png" /></figure>

Shimada T, Limpus C, Jones R, Hazel J, Groom R, Hamann M (2016) Sea turtles return home after intentional displacement from coastal foraging areas. Mar Biol 163: 1–14

<figure><img src="image_370.png" /></figure>

Sifuentes-Romero I, Merchant-Larios H, Milton S, Moreno-Mendoza N and others (2013) RNAi-mediated gene silencing in a gonad organ culture to study sex determination mechanisms in sea turtle. Genes (Basel) 4: 293–305

<figure><img src="image_371.png" /></figure>

Sigler M (2014) The effects of plastic pollution on aquatic wildlife: current situations and future solutions. Water Air Soil Pollut 225:2184

<figure><img src="image_372.png" /></figure>

Sim EL, Booth DT, Limpus CJ (2015) Incubation temperature, morphology and performance in loggerhead (*Caretta caretta*) turtle hatchlings from Mon Repos, Queensland, Australia. Biol Open 4:685–692

<figure><img src="image_373.png" /></figure>

Simoes TN, da Silva AC, dos Santos EM, Chagas CA (2014) Temperature of incubation and sex ratios in the recently-hatched young ones of the sea turtle *Eretmochelys imbricata* (Linnaeus, 1766) in the municipality of Ipojuca, pernambuco, Brazil. Pap Avulsos Zool (Sao Paulo) 54: 363–374

<figure><img src="image_374.png" /></figure>

Sims M, Bjorkland R, Mason P, Crowder LB (2008) Statistical power and sea turtle nesting beach surveys: How long and when? Biol Conserv 141:2921–2931

<figure><img src="image_375.png" /></figure>

Singh R, Weninger Q (2015) Cap-and-trade bycatch management with costly avoidance and stock uncertainty. Mar Resour Econ 30:97–119

<figure><img src="image_376.png" /></figure>

Smolowitz R, Patel SH, Haas H, Miller SA (2015) Using a remotely operated vehicle (ROV) to observe loggerhead sea turtle (*Caretta caretta*) behavior on foraging grounds off the mid-Atlantic United States. J Exp Mar Biol Ecol 471:84–91

Snover ML, Hohn AA (2004) Validation and interpretation of annual skeletal marks in loggerhead (*Caretta caretta*) and Kemp's ridley (*Lepidochelys kempii*) sea turtles. Fish Bull 102:682–692

<figure><img src="image_377.png" /></figure>

Stacy NI, Innis CJ, Hernandez JA (2013) Development and evaluation of three mortality prediction indices for cold-stunned kemp's ridley sea turtles (*Lepidochelys kempii*). Conserv Physiol 1:cot003

<figure><img src="image_378.png" /></figure>

Stacy BA, Innis CJ, Daoust PY, Wyneken J and others (2015) Solitary large intestinal diverticulitis in leatherback turtles (*Dermochelys coriacea*). Vet Pathol 52:712–715

<figure><img src="image_379.png" /></figure>

Stadler M, Salmon M, Roberts C (2015) Ecological correlates of green turtle (*Chelonia mydas*) abundance on the near-shore Worm Reefs of Southeastern Florida. J Coast Res 31:244–254

<figure><img src="image_380.png" /></figure>

Sterling EJ, Mcfadden KW, Holmes KE, Vintinner ECA, Arengo F, Naro-Maciel E (2013) Ecology and conservation of marine turtles in a central pacific foraging ground. Chelonian Conserv Biol 12:2–16

<figure><img src="image_381.png" /></figure>

Stewart KR, Dutton PH (2014) Breeding sex ratios in adult leatherback turtles (*Dermochelys coriacea*) may compensate for female-biased hatchling sex ratios. PLOS ONE 9:e88138
<figure><img src="image_382.png" /></figure>

Stewart K, Mitchell MA, Norton T, Krecek RC (2012) Meas-
uring the level of agreement in hematologic and bio-
chemical values between blood sampling sites in leather-
back sea turtles (*Dermochelys coriacea*). J Zoo Wildl
Med 43:719–725

<figure><img src="image_383.png" /></figure>

Stewart KR, James MC, Roden S, Dutton PH (2013) Assign-
ment tests, telemetry and tag-recapture data converge to
identify natal origins of leatherback turtles foraging in
Atlantic Canadian waters. J Anim Ecol 82:791–803

<figure><img src="image_384.png" /></figure>

Stewart KR, Martin KJ, Johnson C, Desjardin N, Eckert SA, Crowder LB (2014) Increased nesting, good survival and variable site fidelity for leatherback turtles in Florida, USA. Biol Conserv 176:117–125

<figure><img src="image_385.png" /></figure>

Stokes KL, Fuller WJ, Glen F, Godley BJ and others (2014) Detecting green shoots of recovery: the importance of long-term individual-based monitoring of marine turtles. Anim Conserv 17:593–602

<figure><img src="image_386.png" /></figure>

Stokes KL, Broderick AC, Canbolat AF, Candan O and oth-
ers (2015) Migratory corridors and foraging hotspots:
critical habitats identified for Mediterranean green tur-
tles. Divers Distrib 21:665–674

<figure><img src="image_387.png" /></figure>

Storelli MM, Zizzo N (2014) Occurrence of organochlorine contaminants (PCBs, PCDDs and PCDFs) and pathologic findings in loggerhead sea turtles, *Caretta caretta*, from the Adriatic Sea (Mediterranean Sea). Sci Total Environ 472:855–861

<figure><img src="image_388.png" /></figure>

Stringell TB, Clerveaux WV, Godley BJ, Phillips Q and oth-
ers (2015a) Protecting the breeders: research informs
legislative change in a marine turtle fishery. Biodivers
Conserv 24:1775–1796

<figure><img src="image_389.png" /></figure>

Stringell TB, Clerveaux WV, Godley BJ, Phillips Q and oth-
ers (2015b) Fisher choice may increase prevalence of green
turtle fibropapillomatosis disease. Front Mar Sci 2:57

<figure><img src="image_390.png" /></figure>

Sutherland WJ, Pullin A, Dolman P, Knight T (2004) The need for evidence-based conservation. Trends Ecol Evol 19:305–308

<figure><img src="image_391.png" /></figure>

Sutherland WJ, Armstrong-Brown S, Armsworth PR, Brere-
ton T and others (2006) The identification of 100 ecologi-
cal questions of high policy relevance in the UK. J Appl
Ecol 43:617–627

<figure><img src="image_392.png" /></figure>

Sutherland WJ, Adams WM, Aronson RB, Aveling R and others (2009) One hundred questions of importance to the conservation of global biological diversity. Conserv Biol 23:557–567

<figure><img src="image_393.png" /></figure>

Swarthout RF, Keller JM, Peden-Adams M, Landry AM, Fair PA, Kucklick JR (2010) Organohalogen contaminants in blood of Kemp's ridley (*Lepidochelys kempii*) and green sea turtles (*Chelonia mydas*) from the Gulf of Mexico. Chemosphere 78:731–741

<figure><img src="image_394.png" /></figure>

Swimmer Y, Arauz R, McCracken M, McNaughton L and others (2006) Diving behavior and delayed mortality of olive ridley sea turtles *Lepidochelys olivacea* after their release from longline fishing gear. Mar Ecol Prog Ser 323:253–261

<figure><img src="image_395.png" /></figure>

Swimmer Y, Empey Campora C, McNaughton L, Musyl M, Parga M (2014) Post-release mortality estimates of loggerhead sea turtles (*Caretta caretta*) caught in pelagic longline fisheries based on satellite data and hooking location. Aquat Conserv 24:498–510

<figure><img src="image_396.png" /></figure>

Tamura S, Shiode D, Kaneko Y, Fu F, Tokai T, Kobayashi M, Abe O (2014) Behavior of sea turtles to a turtle releasing device (TRD) for set nets of the mid-water and sea-bottom magnet type. Bull Jpn Soc Sci Fish 80:900–907

Tanner C (2014) Sea turtle bycatch off the western region of the Ghanaian Coast. Mar Turtle Newsl 140:8–11

Tedeschi JN, Mitchell NJ, Berry O, Whiting S, Meekan M, Kennington WJ (2014) Reconstructed paternal genotypes reveal variable rates of multiple paternity at three rookeries of loggerhead sea turtles (*Caretta caretta*) in Western Australia. Aust J Zool 62:454–462

<figure><img src="image_397.png" /></figure>

Tedeschi JN, Kennington WJ, Berry O, Whiting S, Meekan M, Mitchell NJ (2015) Increased expression of Hsp70 and Hsp90 mRNA as biomarkers of thermal stress in loggerhead turtle embryos (*Caretta caretta*). J Therm Biol 47: 42–50

<figure><img src="image_398.png" /></figure>

Teh LSL, Teh LCL, Hines E, Junchompoo C, Lewison RL (2015) Contextualising the coupled socio-ecological conditions of marine megafauna bycatch. Ocean Coast Management 116:449–465

<figure><img src="image_399.png" /></figure>

Thomson JA, Burkholder DA, Heithaus MR, Fourqurean JW, Fraser MW, Statton J, Kendrick GA (2015a) Extreme temperatures, foundation species, and abrupt ecosystem change: an example from an iconic seagrass ecosystem. Glob Change Biol 21:1463–1474

<figure><img src="image_400.png" /></figure>

Thomson JA, Gulick A, Heithaus MR (2015b) Intraspecific behavioral dynamics in a green turtle *Chelonia mydas* foraging aggregation. Mar Ecol Prog Ser 532:243–256

<figure><img src="image_401.png" /></figure>

Tikochinski Y, Bendelac R, Barash A, Daya A, Levy Y, Fried-
mann A (2012) Mitochondrial DNA STR analysis as a tool
for studying the green sea turtle (Chelonia mydas) popu-
lations: the Mediterranean Sea case study. Mar Genomics
6:17–24

Tisdell C, Tisdell CA (2014a) The hawksbill turtle—its con-
servation and use: public values, attitudes and policies.
In: Tisdell CA (ed) Human values and biodiversity con-
servation: the survival of wild species. Edward Elgar
Publishing, Cheltenham, p 157–179

Tisdell C, Tisdell CA (2014b) Public support for conserving reptile species: stated values for different species and comparative support for their conservation. In: Tisdell CA (ed) Human values and biodiversity conservation: the survival of wild species. Edward Elgar Publishing, Cheltenham, p 209–233

Tisdell C, Tisdell CA (2014c) Changed values and increased support for wildlife conservation as a result of ecotourism: a sea turtle study. In: Tisdell CA (ed) Human values and biodiversity conservation: the survival of wild species. Edward Elgar Publishing, Cheltenham, p 43–58

<figure><img src="image_402.png" /></figure>

Tiwari M, Bjorndal KA, Bolten AB, Bolker BM (2005) Intra-
specific application of the mid-domain effect model: spa-
tial and temporal nest distributions of green turtles, Che-
lonia mydas, at Tortuguero, Costa Rica. Ecol Lett 8:
918–924

<figure><img src="image_403.png" /></figure>

Tonay AM, Danyer E, Dede A, Öztürk B, Öztürk AA (2016) The stomach content of a Mediterranean monk seal (*Monachus monachus*): finding of green turtle (*Chelonia mydas*) remains. Zool Middle East 62:212–216

Trujillo-Arias N, Amorocho DF, Lopez-Alvarez D, Mejia-
Ladino LM (2014) Phylogeographic relations of some
feeding and nesting of hawksbill turtle rookeries
(*Eretmochelys imbricata*) in the Caribbean and Pacific of
Colombia. Bol Investig Mar Cost 43:159–182

<figure><img src="image_404.png" /></figure>

Tucek J, Nel R, Girondot M, Hughes G (2014) Age-size rela-
tionship at reproduction of South African female logger-
head turtles *Caretta caretta*. Endang Species Res 23:
167–175

<figure><img src="image_405.png" /></figure>

Tucker AD (2010) Nest site fidelity and clutch frequency of loggerhead turtles are better elucidated by satellite telemetry than by nocturnal tagging efforts: implications for stock estimation. J Exp Mar Biol Ecol 383:48–55
* Tucker AD, MacDonald BD, Seminoff JA (2014) Foraging site fidelity and stable isotope values of loggerhead turtles tracked in the Gulf of Mexico and northwest Caribbean. Mar Ecol Prog Ser 502:267–279

* Turner-Tomaszewicz CN, Seminoff JA, Avens L, Goshe LR, Peckham SH, Rguez-Baron JM, Kurle CM (2015) Age and residency duration of loggerhead turtles at a North Pacific bycatch hotspot using skeletochronology. Biol Conserv 186:134–142

* Uçar AH, Kaska Y, Ergene S, Aymak C and others (2012) Sex ratio estimation of the most eastern main loggerhead sea turtle nesting site: Anamur beach, Mersin, Turkey. Isr J Ecol Evol 58:87–100

* Ullmann J, Stachowitsch M (2015) A critical review of the Mediterranean sea turtle rescue network: a web looking for a weaver. Nat Conserv 10:45–69

* Valverde RA, Orrego CM, Tordoir MT, Gómez FM and others (2012) Olive ridley mass nesting ecology and egg harvest at Ostional Beach, Costa Rica. Chelonian Conserv Biol 11:1–11

* van de Merwe JP, Hodge M, Olszowy HA, Whittier JM, Ibrahim K, Lee SY (2009) Chemical contamination of green turtle (*Chelonia mydas*) eggs in peninsular Malaysia: implications for conservation and public health. Environ Health Perspect 117:1397–1401

* van de Merwe JP, Hodge M, Whittier JM, Ibrahim K, Lee SY (2010) Persistent organic pollutants in the green sea turtle *Chelonia mydas*: nesting population variation, material transfer, and effects on development. Mar Ecol Prog Ser 403:269–278

* van de Merwe JP, West EJ, Ibrahim K (2012) Effects of off-road vehicle tyre ruts on the beach dispersal of green sea turtle *Chelonia mydas* hatchlings. Endang Species Res 18:27–34

* Van Houtan KS, Kittinger JN (2014) Historical commercial exploitation and the current status of Hawaiian green turtles. Biol Conserv 170:20–27

* Van Houtan KS, Hargrove SK, Balazs GH (2010) Land use, macroalgae, and a tumor-forming disease in marine turtles. PLOS ONE 5:e12900

* Van Houtan KS, Hargrove SK, Balazs GH (2014a) Modeling sea turtle maturity age from partial life history records. Pac Sci 68:465–477

* Van Houtan KS, Smith CM, Dailer ML, Kawachi M (2014b) Eutrophication and the dietary promotion of sea turtle tumors. PeerJ 2:e602

* Van Houtan KS, Francke DL, Alessi S, Jones TT and others (2016) The developmental biogeography of hawksbill sea turtles in the North Pacific. Ecol Evol 6:2378–2389

* Vander Zanden HB, Bjorndal KA, Inglett PW, Bolten AB (2012) Marine-derived nutrients from green turtle nests subsidize terrestrial beach ecosystems. Biotropica 44: 294–301

* Vander Zanden HB, Bjorndal KA, Bolten AB (2013) Temporal consistency and individual specialization in resource use by green turtles in successive life stages. Oecologia 173:767–777

* Vander Zanden HB, Pfaller JB, Reich KJ, Pajuelo M and others (2014) Foraging areas differentially affect reproductive output and interpretation of trends in abundance of loggerhead turtles. Mar Biol 161:585–598

* Vander Zanden HB, Tucker AD, Hart KM, Lamont ML and others (2015) Determining origin in a migratory marine vertebrate: a novel method to integrate stable isotopes and satellite tracking. Ecol Appl 25:320–335

* Vander Zanden HB, Bolten AB, Tucker AD, Hart KM and others (2016) Biomarkers reveal sea turtles remained in oiled areas following the Deepwater Horizon oil spill. Ecol Appl. doi:10.1002/eap.1366

* Vargas SM, Jensen MP, Ho SYW, Mobaraki A and others (2016) Phylogeography, genetic diversity, and management units of hawksbill turtles in the Indo-Pacific. J Hered 107:199–213

* Varo-Cruz N, Bermeja JA, Calabuig P, Cejudo C and others (2016) New findings about the spatial and temporal use of the eastern Atlantic Ocean by large juvenile loggerhead turtles. Divers Distrib 22:481–492

* Varriale A, Bernardi G (2006) DNA methylation in reptiles. Gene 385:122–127

* Vegter AC, Barletta M, Beck C, Borrero J and others (2014) Global research priorities to mitigate plastic pollution impacts on marine wildlife. Endang Species Res 25:225–247

* Velez-Zuazo X, Quiñones J, Pacheco AS, Klinge L and others (2014) Fast growing, healthy and resident green turtles (*Chelonia mydas*) at two neritic sites in the central and northern coast of Peru: implications for conservation. PLOS ONE 9:e113068

* Venegas D, Marmolejo-Valencia A, Valdes-Quezada C, Govenzensky T and others (2016) Dimorphic DNA methylation during temperature-dependent sex determination in the sea turtle *Lepidochelys olivacea*. Gen Comp Endocrinol 236:35–41

* Veríssimo D, Jones DA, Chaverri R, Meyer SR (2012) Jaguar *Panthera onca* predation of marine turtles: conflict between flagship species in Tortuguero, Costa Rica. Oryx 46:340–347

* Viet Anh P, De Laender F, Everaert G, Chu Tien Vinh CT, Goethals P (2014) An integrated food web model to test the impact of fisheries management scenarios on the coastal ecosystem of Vietnam. Ocean Coast Manage 92: 74–86

* Villa CA, Finlayson S, Limpus C, Gaus C (2015) A multi-element screening method to identify metal targets for blood biomonitoring in green sea turtles (*Chelonia mydas*). Sci Total Environ 512–513:613–621

* Wabnitz CCC, Balazs G, Beavers S, Bjorndal KA and others (2010) Ecosystem structure and processes at Kaloko Honok hau, focusing on the role of herbivores, including the green sea turtle *Chelonia mydas*, in reef resilience. Mar Ecol Prog Ser 420:27–44

* Walcott J, Horrocks JA (2014) Design of a protected area for inter-nesting hawksbills in Barbados: an evidence-based approach. Bull Mar Sci 90:969–987

* Walcott J, Eckert S, Oxenford HA, Horrocks JA (2014) Use of a towed camera system to investigate benthic habitat use by inter-nesting female hawksbill sea turtles. Endang Species Res 24:159–170

* Wallace BP, DiMatteo AD, Hurley BJ, Finkbeiner EM and others (2010) Regional management units for marine turtles: a novel framework for prioritizing conservation and research across multiple scales. PLOS ONE 5:e15465

* Wallace BP, DiMatteo AD, Bolten AB, Chaloupka MY and others (2011) Global conservation priorities for marine turtles. PLOS ONE 6:e24510

* Wallace BP, Kot CY, DiMatteo AD, Lee T, Crowder LB, Lewison RL (2013) Impacts of fisheries bycatch on marine turtle populations worldwide: toward conservation and research priorities. Ecosphere 4:art40

* Wallace BP, Schumacher J, Seminoff JA, James MC (2014) Biological and environmental influences on the trophic
ecology of leatherback turtles in the northwest Atlantic Ocean. Mar Biol 161:1711-1724

<figure><img src="image_406.png" /></figure>

Wang J, Fisler S, Swimmer Y (2010) Developing visual deterrents to reduce sea turtle bycatch in gill net fisheries. Mar Ecol Prog Ser 408:241-250

<figure><img src="image_407.png" /></figure>

Wang J, Barkan J, Fisler S, Godinez-Reyes C, Swimmer Y (2013a) Developing ultraviolet illumination of gillnets as a method to reduce sea turtle bycatch. Biol Lett 9: 20130383

<figure><img src="image_408.png" /></figure>

Wang H, Tong J, Bi Y, Wang C, Guo L, Lu Y (2013b) Evaluation of mercury mediated *in vitro* cytotoxicity among cell lines established from green sea turtles. Toxicol In Vitro 27:1025-1030

<figure><img src="image_409.png" /></figure>

Warden ML (2011) Modeling loggerhead sea turtle (*Caretta caretta*) interactions with US Mid-Atlantic bottom trawl gear for fish and scallops, 2005-2008. Biol Conserv 144:2202-2212

<figure><img src="image_410.png" /></figure>

Warden ML, Haas HL, Rose KA, Richards PM (2015) A spatially explicit population model of simulated fisheries impact on loggerhead sea turtles (*Caretta caretta*) in the Northwest Atlantic Ocean. Ecol Modell 299:23-39

<figure><img src="image_411.png" /></figure>

Watson JT, Bigelow KA (2014) Trade-offs among catch, bycatch, and landed value in the American Samoa long-line fishery. Conserv Biol 28:1012-1022

<figure><img src="image_412.png" /></figure>

Webb SJ, Zychowski GV, Bauman SW, Higgins BM and others (2014) Establishment, characterization, and toxicological application of loggerhead sea turtle (*Caretta caretta*) primary skin fibroblast cell cultures. Environ Sci Technol 48:14728-14737

<figure><img src="image_413.png" /></figure>

Weber SB, Broderick AC, Groothuis TGG, Ellick J, Godley BJ, Blount JD (2012) Fine-scale thermal adaptation in a green turtle nesting population. Proc R Soc B 279: 1077-1084

<figure><img src="image_414.png" /></figure>

Weber SB, Weber N, Ellick J, Avery A and others (2014) Recovery of the South Atlantic's largest green turtle nesting population. Biodivers Conserv 23:3005-3018

<figure><img src="image_415.png" /></figure>

Weiss K, Hamann M, Kinney M, Marsh H (2012) Knowledge exchange and policy influence in a marine resource governance network. Glob Environ Change 22:178-188

<figure><img src="image_416.png" /></figure>

Weiss K, Hamann M, Marsh H (2013) Bridging knowledges: understanding and applying indigenous and western scientific knowledge for marine wildlife management. Soc Nat Resour 26:285-302

<figure><img src="image_417.png" /></figure>

Wells ML, Trainer VL, Smayda TJ, Karlson BSO and others (2015) Harmful algal blooms and climate change: learning from the past and present to forecast the future. Harmful Algae 49:68-93

<figure><img src="image_418.png" /></figure>

Werneck MR, Silva RJ (2015) Helminth parasites of juvenile green turtles *Chelonia mydas* (testudines: Cheloniidae) in Brazil. J Parasitol 101:713-716

<figure><img src="image_419.png" /></figure>

Werneck MR, Baldassin P, D'Azeredo F, Trazi A, Berger B (2014) The hawksbill sea turtle *Eretmochelys imbricata* Linnaeus 1758 (Testudines, Cheloniidae) as new host of *Hapalotrema postorchis* Rao, 1976 (Digenea: Spirorchiidae). Comp Parasitol 81:75-78

<figure><img src="image_420.png" /></figure>

Werneck MR, Binoti E, Martins IVF, De Calais Junior A and others (2015a) Occurrence of *Rhytidoidoides similis* Price, 1939 (Digenea: Rhytidodidae) and lesions due to spirorchiid eggs in a green turtle, *Chelonia mydas* Linnaeus, 1758 (Testudines, Cheloniidae), from Brazil. Comp Parasitol 82:291-295

<figure><img src="image_421.png" /></figure>

Werneck MR, Lima EHSM, Pires T, Silva RJ (2015b) Helminth parasites of the juvenile hawksbill turtle *Eretmochelys imbricata* (Testudines: Cheloniidae) in Brazil. J Parasitol 101:500-503

<figure><img src="image_422.png" /></figure>

Werneck MR, Souza GB, Berger BC, Trazi A and others (2015c) Pathological changes by *Hapalotrema postorchis* Rao 1976 (Digenea: Spirorchiidae) in a green turtle *Chelonia mydas* Linnaeus 1758 (Testudines, Cheloniidae) from Brazil. Helminthologia 52:148-154

<figure><img src="image_423.png" /></figure>

Werneck MR, Sousa VR, Trazi A, Berger B (2015d) *Monticellius indicum* Mehra, 1939 (Digenea: Spirorchiidae) in a hawksbill turtle, *Eretmochelys imbricata* Linnaeus 1766 (Testudines, Cheloniidae) from Brazil. Comp Parasitol 82:155-157

<figure><img src="image_424.png" /></figure>

White M, Boura L, Venizelos L (2013) Population structure for sea turtles at Drini Bay: an important nearshore foraging and developmental habitat in Albania. Chelonian Conserv Biol 12:283-292

White MP, Pahl S, Wheeler BW, Fleming LEF, Depledge MH (2016) The 'Blue Gym': What can blue space do for you and what can you do for blue space? J Mar Biol Assoc UK 96:5-12

<figure><img src="image_425.png" /></figure>

Whiting SD, Whiting AU (2011) Predation by the saltwater crocodile (*Crocodylus porosus*) on sea turtle adults, eggs, and hatchlings. Chelonian Conserv Biol 10:198-205

<figure><img src="image_426.png" /></figure>

Whiting AU, Chaloupka M, Limpus CJ (2013) Comparing sampling effort and errors in abundance estimates between short and protracted nesting seasons for sea turtles. J Exp Mar Biol Ecol 449:165-170

<figure><img src="image_427.png" /></figure>

Whiting AU, Chaloupka M, Pilcher N, Basintal P, Limpus CJ (2014a) Comparison and review of models describing sea turtle nesting abundance. Mar Ecol Prog Ser 508:233-246

<figure><img src="image_428.png" /></figure>

Whiting SD, Guinea ML, Fomiatti K, Flint M, Limpus CJ (2014b) Plasma biochemical and PCV ranges for healthy, wild, immature hawksbill (*Eretmochelys imbricata*) sea turtles. Vet Rec 174:608

<figure><img src="image_429.png" /></figure>

Whittock PA, Pendoley KL, Hamann M (2014) Inter-nesting distribution of flatback turtles *Natator depressus* and industrial development in Western Australia. Endang Species Res 26:25-38

Wibbels T (2003) Critical approaches to sex determination in sea turtles. In: Lutz PL, Musick JA, Wyneken J (eds) The biology of sea turtles, Vol II. CRC Press, Boca Raton, FL, p 103-113

<figure><img src="image_430.png" /></figure>

Wilcox C, Hardesty BD, Sharples R, Griffin DA, Lawson TJ, Gunn R (2013) Ghostnet impacts on globally threatened turtles, a spatial risk analysis for northern Australia. Conserv Lett 6:247-254

<figure><img src="image_431.png" /></figure>

Wilcox C, Heathcote G, Goldberg J, Gunn R, Peel D, Hard-esty BD (2015) Understanding the sources and effects of abandoned, lost, and discarded fishing gear on marine turtles in northern Australia. Conserv Biol 29:198-206

<figure><img src="image_432.png" /></figure>

Williams JL, Pierce SJ, Fuentes MMPB, Hamann M (2015) Effectiveness of recreational divers for monitoring sea turtle populations. Endang Species Res 26:209-219

<figure><img src="image_433.png" /></figure>

Willis-Norton E, Hazen EL, Fossette S, Shillinger G and others (2015) Climate change impacts on leatherback turtle pelagic habitat in the Southeast Pacific. Deep-Sea Res II 113:260-267

<figure><img src="image_434.png" /></figure>

Wise SS, Xie H, Fukuda T, Thompson WD, Wise JP (2014) Hexavalent chromium is cytotoxic and genotoxic to hawksbill sea turtle cells. Toxicol Appl Pharmacol 279: 113-118

<figure><img src="image_435.png" /></figure>

Witherington B, Hirama S, Mosier A (2011) Barriers to sea turtle nesting on Florida (USA) beaches: linear extent. J Coast Res 27:450-458

Wolanski E (in press) Bounded and unbounded boundaries — untangling mechanisms for estuarine-marine ecological connectivity: scales of m to 10,000 km — a review.
Estuar Coast Mar Sci

<figure><img src="image_436.png" /></figure>

Wood A, Booth DT, Limpus CJ (2014) Sun exposure, nest temperature and loggerhead turtle hatchlings: implications for beach shading management strategies at sea turtle rookeries. *J Exp Mar Biol Ecol* 451:105–114

<figure><img src="image_437.png" /></figure>

Woolgar L, Trocini S, Mitchell N (2013) Key parameters describing temperature-dependent sex determination in the southernmost population of loggerhead sea turtles. *J Exp Mar Biol Ecol* 449:77–84

<figure><img src="image_438.png" /></figure>

Work TM, Balazs GH, Summers TM, Hapdei JR, Tagarino AP (2015a) Causes of mortality in green turtles from Hawaii and the insular Pacific exclusive of fibropapillomatosis. *Dis Aquat Org* 115:103–110

Work TM, Dagenais J, Balazs GH, Schettle N, Ackermann M (2015b) Dynamics of virus shedding and in-situ confirmation of chelonid herpesvirus 5 in Hawaiian green turtles with fibropapillomatosis. *Vet Pathol* 52:1195–1201

<figure><img src="image_439.png" /></figure>

Wright LI, Fuller WJ, Godley BJ, McGowan A, Tregenza T, Broderick AC (2012) Reconstruction of paternal genotypes over multiple breeding seasons reveals male green turtles do not breed annually. *Mol Ecol* 21:3625–3635

<figure><img src="image_440.png" /></figure>

Wyneken J, Lolavar A (2015) Loggerhead sea turtle environmental sex determination: implications of moisture and temperature for climate change based predictions for species survival. *J Exp Zool B Mol Dev Evol* 324:295–314

<figure><img src="image_441.png" /></figure>

Xia ZR, Li PP, Gu HX, Fong JJ and others (2011) Evaluating noninvasive methods of sex identification in green sea turtle (*Chelonia mydas*) hatchlings. *Chelonian Conserv Biol* 10:117–123

<figure><img src="image_442.png" /></figure>

Yamamoto KH, Powell RL, Anderson S, Sutton PC (2012) Using LiDAR to quantify topographic and bathymetric details for sea turtle nesting beaches in Florida. *Remote Sens Environ* 125:125–133

<figure><img src="image_443.png" /></figure>

Yamamoto KH, Anderson SJ, Sutton PC (2015) Measuring

the effects of morphological changes to sea turtle nesting beaches over time with LiDAR data. *J Sea Res* 104:9–15

<figure><img src="image_444.png" /></figure>

Yang W, Wang Y, Chen M (2015) Genetic structure and diversity of green sea turtle (*Chelonia mydas*) from South China Sea inferred by mtDNA control region sequence. *Biochem Syst Ecol* 60:95–98

<figure><img src="image_445.png" /></figure>

Young JL, Wise SS, Xie H, Zhu C, Fukuda T, Wise JP (2015) Comparative cytotoxicity and genotoxicity of soluble and particulate hexavalent chromium in human and hawksbill sea turtle (*Eretmochelys imbricata*) skin cells. *Comp Biochem Physiol C Toxicol Pharmacol* 178:145–155

<figure><img src="image_446.png" /></figure>

Zarate PM, Bjorndal KA, Seminoff JA, Dutton PH, Bolten AB (2015) Somatic growth rates of green turtles (*Chelonia mydas*) and hawksbills (*Eretmochelys imbricata*) in the Galapagos Islands. *J Herpetol* 49:641–648

<figure><img src="image_447.png" /></figure>

Zavala-Norzagaray AA, Alonso Aguirre A, Velazquez-Roman J, Flores-Villasenor H and others (2015) Isolation, characterization, and antibiotic resistance of *Vibrio* spp. in sea turtles from Northwestern Mexico. *Front Microbiol* 6:635

<figure><img src="image_448.png" /></figure>

Zbinden JA, Bearhop S, Bradshaw P, Gill B, Margaritoulis D, Newton J, Godley BJ (2011) Migratory dichotomy and associated phenotypic variation in marine turtles revealed by satellite tracking and stable isotope analysis. *Mar Ecol Prog Ser* 421:291–302

<figure><img src="image_449.png" /></figure>

Zug GR, Kalb HJ, Luzar SJ (1997) Age and growth in wild Kemp's ridley sea turtles *Lepidochelys kempii* from skeletochronological data. *Biol Conserv* 80:261–268

<figure><img src="image_450.png" /></figure>

Zwart G, Rossi S, Sanches TC, Cesar MD, Werneck MR, Matushima ER (2014) Hematological and histopathological evaluation of wildlife green turtles (*Chelonia mydas*) with and without fibropapilloma from the north coast of Sao Paulo state, Brazil. *Pesqui Odontol Bras* 34: 682–688
<table><caption>**Appendix 1. Scientific literature (details below table) published in 2014 and 2015 that address the 20 questions highlighted by Hamann et al. (2010)**</caption><thead><tr><td>Question</td><td>References</td></tr></thead><tbody><tr><td>1 What are the factors that underpin nest site selection and behaviour of nesting turtles?</td><td>1–9</td></tr><tr><td>2 What are the primary sex ratios being produced and how do these vary within or among populations and species?</td><td>10–21</td></tr><tr><td>3 What factors are important for sustained hatchling production?</td><td>8, 14, 15, 18, 19, 21–41, [42], [43]</td></tr><tr><td>4 What are the population boundaries and connections that exist among rookeries and foraging grounds?</td><td>44–101</td></tr><tr><td>5 What parameters influence the biogeography of sea turtles in the oceanic realm?</td><td>48, 51–53, 70, 71, 79, 82, 85, 87, 88, 91, 102–117</td></tr><tr><td>6 Where are key foraging habitats?</td><td>45, 46, 49, 58, 60–62, 70, 71, 73, 80–84, 96, 99, 103, 104, 108, 117–133</td></tr><tr><td>7 Can we develop methods to accurately age individual turtles, determine a population's (or species') mean age-at-maturity, and define age-based demography?</td><td>111, 134–145</td></tr><tr><td>8 What are the most reliable methods for estimating demographic parameters?</td><td>25, 42, 59, 98, 112, 121, 131, 134–138, 140, 146–165</td></tr><tr><td>9 How can we develop an understanding of sea turtle metapopulation dynamics and conservation biogeography?</td><td>44, 48–50, 52–57, 59–63, 65–69, 72–78, 80, 81, 83–90, 92–95, 97, 98, 100, 101, 116, 137, 142, 145, 151, 159, 160, 166–174</td></tr><tr><td>10 What are the past and present roles of sea turtles in the ecosystem?</td><td>175–182</td></tr><tr><td>11 What constitutes a healthy turtle?</td><td>183–229</td></tr><tr><td>12 What will be the impacts from climate change on sea turtles and how can these be mitigated?</td><td>5, 10, 11, 14, 18, 19, 21, 28–30, 35, 39, 82, 110, 117, 166, 230–248</td></tr><tr><td>13 What are the major sources of fisheries bycatch and how can these be mitigated in ways that are ecologically, economically and socially practicable?</td><td>58, 64, 82, 96, 102, 106, 181, 249–285</td></tr><tr><td>14 How can we evaluate the effects of anthropogenic factors on sea turtle habitats?</td><td>246, 286</td></tr><tr><td>15 What are the impacts of pollution on sea turtles and their habitats?</td><td>196, 197, 217, 287–311</td></tr><tr><td>16 What are the etiology and epidemiology of fibropapillomatosis (FP), and how can this disease be managed?</td><td>183–185, 193, 197, 207–209, 212, 227, 229, 297, 312–314</td></tr><tr><td>17 How can we effectively determine the conservation status of sea turtle populations?</td><td>47, 62, 81, 97, 112, 147, 149, 150, 164, 165, 315–320</td></tr><tr><td>18 What are the most viable cultural, legal and socioeconomic frameworks for sea turtle conservation?</td><td>97, 175, 250, 259, 264, 266, 269, 279, 283, 285, 317, 319, 321–337</td></tr><tr><td>19 Which conservation strategies are working (have worked) and which have failed?</td><td>22, 26, 32, 47, 67, 97, 149, 164, 236, 239, 266, 277, 278, 316, 317, 319, 321, 323, 324, 326, 329, 331, 335, 336, 338–353</td></tr><tr><td>20 Under what conditions (ecological, environmental, social and political) can consumptive use of sea turtles be sustained?</td><td>69, 97, 250, 266, 277, 316, 319, 322, 324, 327, 331, 336, 341, 354, 355</td></tr></tbody></table>

1. Anastácio et al. (2014)

2. Barik et al. (2014)

3. Brothers & Lohmann (2015)

4. Kawazu et al. (2015a)

5. Lamont & Fujisaki (2014)

6. Lamont & Houser (2014)

7. Neeman et al. (2015a)

8. Reising et al. (2015)

9. Whittock et al. (2014)

10. Girondot & Kaska (2014)

11. Girondot & Kaska (2015)

12. Jribi & Bradai (2014)

13. Kilic & Candan (2014)

14. Laloë et al. (2014)

15. Lolavar & Wyneken (2015)

16. dei Marcovaldi et al. (2014)

17. Morales Mérida et al. (2015)

18. Santidrián Tomillo et al. (2015a)

19. Santidrián Tomillo et al. (2014)

20. Simoes et al. (2014)

21. Wyneken & Lolavar (2015)

22. Abd Mutalib & Fadzly (2015)

23. Bevan et al. (2014)

24. Bézy et al. (2015)

25. Brost et al. (2015)

26. Burger & Gochfeld (2014)

27. Dellert et al. (2014)

28. Dudley & Porter (2014)

29. Howard et al. (2014)

30. Howard et al. (2015)

31. Cheng et al. (2015)

32. Mcelroy et al. (2015)

33. Phillips et al. (2014b)

34. Phillott & Parmenter (2014)

35. Pike (2014)

36. Prieto-Torres & Hernandez-Rangel (2015).

37. Rafferty & Reina (2014)

38. Rings et al. (2015)

39. Santidrián Tomillo et al. (2015b)

40. Sarmiento-Ramírez et al. (2014a)

41. Sarmiento-Ramírez et al. (2014b)

42. Alfaro-Núñez et al. (2015)

43. Baena et al. (2015)

44. Al-Mohanna et al. (2014)

45. Attum et al. (2014)

46. Baudouin et al. (2015)

47. Bourjea et al. (2015b)

48. Bourjea et al. (2015a)

49. Carreras et al. (2014a)

50. Carreras et al. (2014b)

51. Casale & Mariani (2014)

52. Clusa et al. (2014)

53. Dalleau et al. (2014)

54. Daza-Criado & Hernandez-Fernandez (2014)

55. Detjen et al. (2015)

56. Dutton et al. (2014a)

57. Esteban et al. (2015)

58. Fossette et al. (2014)

59. Frey et al. (2014)

60. Fujioka & Halpin (2014)

61. Gorham et al. (2014)

62. Gredzens et al. (2014)

63. Hamabata et al. (2014)

64. Hardy et al. (2014)

65. Hart et al. (2015)

66. Hart et al. (2014)
67. Hays et al. (2014b)

68. Jordão et al. (2015)

69. Joseph Jet et al. (2014)

70. Lamont et al. (2015)

71. Luschi & Casale (2014)

72. Meylan et al. (2014)

73. Narazaki et al. (2015)

74. Naro-Maciel et al. (2014a)

75. Naro-Maciel et al. (2014b)

76. Ng et al. (2014)

77. Nishizawa et al. (2014a)

78. Nishizawa et al. (2014b)

79. Patel et al. (2015a)

80. Patel et al. (2015b)

81. Pendoley et al. (2014b)

82. Pikesley et al. (2015)

83. Pilcher et al. (2014)

84. Plot et al. (2015)

85. Proietti et al. (2014b)

86. Prosdocimi et al. (2015)

87. Prosdocimi et al. (2014)

88. Putman et al. (2014)

89. Read et al. (2014)

90. Saito et al. (2015)

91. Scott et al. (2014b)

92. Shamblin et al. (2015a)

93. Shamblin et al. (2015c)

94. Shamblin et al. (2014)

95. Shamblin et al. (2015b)

96. Stokes et al. (2015)

97. Stringell et al. (2015a)

98. Tedeschi et al. (2014)

99. Tucker et al. (2014)

100. Vander Zanden et al. (2015)

101. Yang et al. (2015)

102. Bhatpuria et al. (2015)

103. Dodge et al. (2014)

104. Fujioka et al. (2014b)

105. González Carman et al. (2014b)

106. Howell et al. (2015)

107. Kobayashi et al. (2014)

108. López-Castro et al. (2014b)

109. Mansfield et al. (2014)

110. Neeman et al. (2015b)

111. Ramirez et al. (2015)

112. Robinson et al. (2014)

113. Scales et al. (2014)

114. Scales et al. (2015)

115. Scott et al. (2014a)

116. Wallace et al. (2014)

117. Willis-Norton et al. (2015)

118. Bovery & Wyneken (2015)

119. Cardona et al. (2014)

120. Ceriani et al. (2015)

121. Colman et al. (2015)

122. Foley et al. (2014)

123. Fuentes et al. (2015a)

124. Fukuoka et al. (2015)

125. Prior et al. (2015)

126. Putman & Mansfield (2015)

127. Putman et al. (2015b)

128. Sampson et al. (2014)

129. Seminoff et al. (2014)

130. Stadler et al. (2015)

131. Vander Zanden et al. (2014)

132. Velez-Zuazo et al. (2014)

133. Walcott et al. (2014)

134. Avens et al. (2015)

135. Balazs et al. (2015a).

136. Bjorndal et al. (2014)

137. Casale et al. (2015)

138. Hawkes et al. (2014)

139. Kawazu et al. (2015b)

140. Petitet et al. (2015)

141. Quinones et al. (2015)

142. Turner Tomaszewicz et al. (2015)

143. Tucek et al. (2014)

144. Van Houtan et al. (2014a)

145. Zarate et al. (2015)

146. Allen et al. (2015)

147. Delcroix et al. (2014)

148. Derville et al. (2015)

149. García-Cruz et al. (2015)

150. Girondot & Rizzo (2015)

151. Grego & Hitchcock (2014)

152. Goodman Hall et al. (2015)

153. Lamont et al. (2014)

154. LeBlanc et al. (2014)

155. López-Castro et al. (2014a)

156. Patrício et al. (2014)

157. Pendoley et al. (2014a)

158. Phillips et al. (2014a)

159. Phillips et al. (2014c)

160. Pilcher et al. (2015)

161. Shimada et al. (2014)

162. Stewart & Dutton (2014)

163. Stewart et al. (2014)

164. Stokes et al. (2014)

165. Whiting et al. (2014a)

166. Boyle et al. (2014a)

167. Caillouet (2014)

168. Casale et al. (2014)

169. Duran et al. (2015)

170. González-Garza et al. (2015)

171. Hamabata et al. (2015)

172. Labrada-Martagón et al. (2014)

173. Proietti et al. (2014a)

174. Trujillo-Ariaset al. (2014)

175. Viet Anh et al. (2014)

176. Cardona et al. (2015)

177. Christianen et al. (2014)

178. Guilder et al. (2015)

179. Lacey et al. (2014)

180. Molina Hernández et al. (2014b)

181. Piroddi et al. (2015)

182. Santos et al. (2015b)

183. Alfaro-Núñez et al. (2014)

184. Alfaro-Núñez & Gilbert (2014)

185. Deus Santos et al. (2015)

186. Fernandez et al. (2015)

187. Flint et al. (2015b)

188. Flint et al. (2015a)

189. Flower et al. (2015)

190. Fonseca et al. (2015)

191. García-Párraga et al. (2014)

192. Hill et al. (2014)

193. Hirama et al. (2014)

194. Innis et al. (2014)

195. Isler et al. (2014)

196. Jin et al. (2015)

197. Keller et al. (2014)

198. Kelly et al. (2015)

199. Levy et al. (2014)

200. Lewbart et al. (2014)

201. Li et al. (2015)

202. McFadden et al. (2014)

203. Montilla et al. (2014)

204. Muñoz et al. (2014)

205. Nardini et al. (2014)

206. Norton et al. (2015)

207. Page-Karjian et al. (2015a)

208. Page-Karjian et al. (2014)

209. Page-Karjian et al. (2015b)

210. Perrault et al. (2014)

211. Rocha et al. (2015)

212. Rodenbusch et al. (2014)

213. Ruggiero et al. (2014)

214. Santoro et al. (2015)

215. Schumacher et al. (2014)

216. Stacy et al. (2015)

217. Storelli & Zizzo (2014)

218. Villa et al. (2015)

219. Werneck et al. (2014)

220. Werneck et al. (2015a)

221. Werneck et al. (2015b)

222. Werneck & Silva (2015)

223. Werneck et al. (2015d)

224. Werneck et al.(2015c)

225. Whiting et al. (2014b)

226. Work et al. (2015a)

227. Work et al. (2015b)

228. Zavala-Norzagaray et al. (2015)

229. Zwarg et al. (2014)

230. Calvillo Garcia et al. (2015)

231. Cavallo et al. (2015)

232. Dewald & Pike (2014)

233. Fisher et al. (2014)

234. Hill et al. (2015b)

235. Horne et al. (2014)

236. Jourdan & Fuentes (2015)

237. Katselidis et al. (2014)

238. Kumar et al. (2014)

239. Lopez (2015)

240. Mazaris et al. (2015)

241. Neeman et al. (2015c)

242. Osorio A et al. (2014)

243. Patino-Martinez et al. (2014)

244. Sim et al. (2015)

245. Tedeschi et al. (2015)

246. Thomson et al. (2015a)

247. Wood et al. (2014)

248. Yamamoto et al. (2015)

249. Adimey et al. (2014)

250. Aguilar-González et al. (2014)

251. Álvarez de Quevedo et al. (2014)

252. Amorim et al. (2015)

253. Ayala & Sanchez-Scaglioni (2014)

254. Ayissi et al. (2015)

255. Báez et al. (2014b)

256. Bostwick et al. (2014)

257. Bourjea et al. (2014)

258. Báez et al. (2014a)

259. Christie et al. (2014)

260. Coelho et al. (2015)

261. Curtis et al. (2015b)

262. Curtis et al. (2015a)

263. Domènech et al. (2015)

264. Gilman et al. (2014)

265. Girard et al. (2014)

266. Gjertsen et al. (2014)

267. Huang (2015b)

268. Huang(2015a)

269. Kvamsdal & Stohs (2014)

270. Levy et al. (2015)

271. Lewison et al. (2014)

272. Martin et al. (2015a)

273. Murray (2015)

274. Parga et al. (2015)

275. Pelc et al. (2015)

276. Roe et al. (2014)

277. Senko et al. (2014a)

278. Senko et al. (2014b)

279. Singh & Weninger(2015)

280. Swimmer et al. (2014)

281. Tamura et al. (2014)

282. Tanner (2014)

283. Teh et al. (2015)

284. Warden et al. (2015)

285. Watson & Bigelow (2014)

286. Flores-Monter et al. (2015)

287. Barreiros & Raykov (2014)

288. Bucchia et al. (2015)

289. Camedda et al. (2014)

290. de Carvalho et al. (2015)

291. Deudero & Alomar (2015)

292. Gómez-Picos et al. (2014)

293. González Carman et al. (2014a)

294. Hoarau et al. (2014)

295. Kamrowski et al. (2014a)

296. Kamrowski et al. (2014c)

297. McCrink-Goode (2014)

298. da Silva Mendes et al. (2015)

299. Pendoley & Kamrowski (2015)

300. Poli et al. (2014)

301. Poli et al. (2015)

302. Putman et al. (2015a)

303. Reinhold (2015)

304. Reintsma et al. (2014)

305. Rivas et al. (2015)

306. Robinson & Figgener (2015)

307. Santos et al. (2015a)

308. Schuyler et al. (2014b)

309. Schuyler et al. (2014a)

310. Sigler (2014)

311. Wilcox et al. (2015)

312. Rossi et al. (2015)

313. Sellera et al. (2014)

314. Van Houtan et al. (2014b)

315. Ehrhart et al. (2014)

316. Hamilton et al. (2015)

317. Jackson et al. (2015)

318. Metcalfe et al. (2015)

319. Van Houtan & Kittinger (2014)

320. Weber et al. (2014)

321. Fuentes et al. (2015b)

322. Halkyard (2014)

323. Harris et al. (2015)

324. Hill et al. (2015a)

325. Humber et al. (2015)

326. Kamrowski et al. (2014b)

327. Lagueux et al. (2014)

328. Lascelles et al. (2014)

329. Lewison et al. (2015)

330. Lopez et al. (2015)

331. Macrae & Whiting (2014)

332. Martin et al. (2015b)

333. Maxwell et al. (2015)

334. Mazaris et al. (2014)

335. McDonald et al. (2014)

336. Tisdell & Tisdell (2014a)

337. Tisdell & Tisdell (2014b)

338. Baker et al. (2015)

339. Balazs et al. (2015b)

340. Caillouet et al. (2015)

341. Humber et al. (2014)

342. Lamarre-DeJesus & Griffin (2015)

343. Mestre et al. (2014)

344. Nijman (2015)

345. Revuelta et al. (2015a)

346. Revuelta et al. (2014)

347. Revuelta et al. (2015b)

348. Schneller & Irizarry (2014)

349. Schofield et al. (2015)

350. Shaver & Caillouet (2015)

351. Tisdell & Tisdell (2014c)

352. Ullmann & Stachowitsch (2015)

353. Walcott & Horrocks (2014)

354. Arena (2014)

355. D'Cruze et al. (2015)