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science.1205134

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Colin, Sean P; Costello, John H (2002): Morphology, swimming performance and propulsive mode of six co-occurring hydromedusae. Journal of Experimental Biology, 205, 427-437

Costello, John H; Colin, Sean P (1994): Morphology, fluid motion and predation by the scyphomedusa Aurelia aurita. Marine Biology, 121(2), 327-334, https://doi.org/10.1007/BF00346741

Costello, John H; Colin, Sean P (1995): Flow and feeding by swimming scyphomedusae. Marine Biology, 124(3), 399-406, https://doi.org/10.1007/BF00363913

D'Ambra, Isabella; Costello, John H; Bentivegna, F (2001): An example of collaborative research at the Naples Aquarium: feeding mechanisms of the scyphomedusa Phyllorhiza punctata von Ledenfeld, 1884. Bulletin de l'Institut océanographique Monaco, 1(20), 6pp

Daniel, Anne (1983): Mechanics and energetics of medusan jet propulsion. Canadian Journal of Zoology-Revue Canadienne de Zoologie, 61(6), 1406-1420, https://doi.org/10.1139/z83-190

Ford, M D; Costello, John H; Heidelberg, K B; Purcell, Jennifer E (1997): Swimming and feeding by the scyphomedusa Chrysaora quinquecirrha. Marine Biology, 129(2), 355-362, https://doi.org/10.1007/s002270050175

Gladfelter, W G (1973): A comparative analysis of the locomotory systems of medusoid Cnidaria. Helgoland Marine Research, 25(2-3), 228-272, https://doi.org/10.1007/BF01611199

Graham, William M; Martin, Daniel L; Felder, Darryl L; Asper, Vernon; Perry, Harriet M (2003): Ecological and economic implications of a tropical jellyfish invader in the Gulf of Mexico. Biological Invasions, 5(1/2), 53-69, https://doi.org/10.1023/A:1024046707234

Higgins III, J E; Ford, M D; Costello, John H (2008): Transitions in Morphology, Nematocyst Distribution, Fluid Motions, and Prey Capture during Development of the Scyphomedusa Cyanea capillata. Biological Bulletin, 214(1), 29, https://doi.org/10.2307/25066657

Kolesar, Sarah Elizabeth (2006): DRUM: The effects of low dissolved oxygen on predation interactions between Mnemiopsis leidyi ctenophores and larval fish in the Chesapeake Bay ecosystem. University of Maryland, 172pp

Kremer, Patricia; Costello, John H; Kremer, James N; Canino, Michael (1990): Significance of photosynthetic endosymbionts to the carbon budget of the scyphomedusa Linuche unguiculata. Limnology and Oceanography, 35(3), 609-624, https://doi.org/10.4319/lo.1990.35.3.0609

Kremer, Patricia; Nixon, S (1976): Distribution and abundance of the ctenophore, Mnemiopsis leidyi in Narragansett Bay. Estuarine, Coastal and Shelf Science, 4(6), 627-639, https://doi.org/10.1016/0302-3524(76)90071-2

Kreps, T A; Purcell, Jennifer E; Heidelberg, K B (1997): Escape of the ctenophore Mnemiopsis leidyi from the scyphomedusa predator Chrysaora quinquecirrha. Marine Biology, 128(3), 441-446, https://doi.org/10.1007/s002270050110

Larson, R J (1986): Water content, organic content, and carbon and nitrogen composition of medusae from the northeast Pacific. Journal of Experimental Marine Biology and Ecology, 99(2), 107-120, https://doi.org/10.1016/0022-0981(86)90231-5

Larson, R J (1987): Respiration and carbon turnover rates of medusae from the NE Pacific. Comparative Biochemistry and Physiology Part A: Molecular & Integrative Physiology, 87(1), 93-100, https://doi.org/10.1016/0300-9629(87)90430-0

Martinussen, M B; Bamstedt, Ulf (1999): Nutritional ecology of gelatinous planktonic predators. Digestion rate in relation to type and amount of prey. Journal of Experimental Marine Biology and Ecology, 232(1), 61-84, https://doi.org/10.1016/S0022-0981(98)00101-4

Matanoski, J C; Hood, R R; Purcell, Jennifer E (2001): Characterizing the effect of prey on swimming and feeding efficiency of the scyphomedusa Chrysaora quinquecirrha. Marine Biology, 139(1), 191-200, https://doi.org/10.1007/s002270100558

Matsumoto, Genki I; Harbison, G R (1993): In situ observations of foraging, feeding, and escape behavior in three orders of oceanic ctenophores: Lobata, Cestida, and Beroida. Marine Biology, 117(2), 279-287, https://doi.org/10.1007/BF00345673

McHenry, Matthew J; Jed, Jason (2003): The ontogenetic scaling of hydrodynamics and swimming performance in jellyfish (Aurelia aurita). Journal of Experimental Biology, 206(22), 4125-4137, https://doi.org/10.1242/jeb.00649

Palomares, M L D; Pauly, George G (2008): The growth of jellyfishes. Hydrobiologia, 616(1), 11-21, https://doi.org/10.1007/s10750-008-9582-y

Purcell, Jennifer E (1992): Effects of predation by the scyphomedusan Chrysaora quinquecirrha on zooplankton populations in Chesapeake Bay, USA. Marine Ecology Progress Series, 87, 65-76, https://doi.org/10.3354/meps087065

Purcell, Jennifer E; Shiganova, Tamara; Decker, Mary Beth; Houde, Edward D (2001): The ctenophore Mnemiopsis in native and exotic habitats: US estuaries versus the Black Sea Basin. Hydrobiologia, 451(1/3), 145-176, https://doi.org/10.1023/A:1011826618539

Youngbluth, Marsh J; Bamstedt, Ulf (2001): Distribution, abundance, behavior and metabolism of Periphylla periphylla, a mesopelagic coronate medusa in a Norwegian fjord. Hydrobiologia, 451(1/3), 321-333, https://doi.org/10.1023/A:1011874828960

Parameter(s):

#	Name	Short Name	Unit	Principal Investigator	Method/Device	Comment
1	Treatment: temperature	T:temp	°C	Acuña, José Luis
2	Comment	Comment		Acuña, José Luis		DW = dry weight, WW = wet weight, CW = carbon weight
3	Aequorea victoria, diameter	A. victoria diam	mm	Acuña, José Luis	see reference(s)
4	Aequorea victoria, swimming speed	A. victoria swim speed	µm/s	Acuña, José Luis	see reference(s)
5	Aurelia aurita, diameter	A. aurita diam	mm	Acuña, José Luis	see reference(s)
6	Aurelia aurita, body mass, wet	A.aurita BM wet	mg	Acuña, José Luis	see reference(s)
7	Aurelia aurita, body mass, carbon	A.aurita BM C	mg	Acuña, José Luis	see reference(s)
8	Aurelia aurita, swimming speed	A.aurita swim speed	µm/s	Acuña, José Luis	see reference(s)
9	Bolinopsis infundibulum, diameter	B. infundibulum diam	mm	Acuña, José Luis	see reference(s)
10	Bolinopsis infundibulum, swimming speed	B. infundibulum swim speed	µm/s	Acuña, José Luis	see reference(s)
11	Chrysaora quinquecirrha, diameter	C. quinquecirrha diam	mm	Acuña, José Luis	see reference(s)
12	Chrysaora quinquecirrha, body mass, wet	C. quinquecirrha BM wet	mg	Acuña, José Luis	see reference(s)
13	Chrysaora quinquecirrha, body mass, carbon	C. quinquecirrha BM C	mg	Acuña, José Luis	see reference(s)
14	Chrysaora quinquecirrha, swimming speed	C. quinquecirrha swim speed	µm/s	Acuña, José Luis	see reference(s)
15	Cyanea capillata, diameter	C. capillata diam	mm	Acuña, José Luis	see reference(s)
16	Cyanea capillata, body mass, wet	C. capillata BM wet	mg	Acuña, José Luis	see reference(s)
17	Cyanea capillata, body mass, carbon	C. capillata BM C	mg	Acuña, José Luis	see reference(s)
18	Cyanea capillata, swimming speed	C. capillata swim speed	µm/s	Acuña, José Luis	see reference(s)
19	Linuche unguiculata, diameter	L. unguiculata diam	mm	Acuña, José Luis	see reference(s)
20	Linuche unguiculata, body mass, wet	L. unguiculata BM wet	mg	Acuña, José Luis	see reference(s)
21	Linuche unguiculata, body mass, carbon	L. unguiculata BM C	mg	Acuña, José Luis	see reference(s)
22	Linuche unguiculata, swimming speed	L. unguiculata swim speed	µm/s	Acuña, José Luis	see reference(s)
23	Liriope tetraphylla, diameter	L. tetraphylla diam	mm	Acuña, José Luis	see reference(s)
24	Liriope tetraphylla, swimming speed	L. tetraphylla swim speed	µm/s	Acuña, José Luis	see reference(s)
25	Mitrocoma cellularia, diameter	M. cellularia diam	mm	Acuña, José Luis	see reference(s)
26	Mitrocoma cellularia, swimming speed	M. cellularia swim speed	µm/s	Acuña, José Luis	see reference(s)
27	Mnemiopsis leidyi, diameter	M. leidyi diam	mm	Acuña, José Luis	see reference(s)
28	Mnemiopsis leidyi, body mass, wet	M. leidyi BM wet	mg	Acuña, José Luis	see reference(s)
29	Mnemiopsis leidyi, body mass, carbon	M. leidyi BM C	mg	Acuña, José Luis	see reference(s)
30	Mnemiopsis leidyi, swimming speed	M. leidyi swim speed	µm/s	Acuña, José Luis	see reference(s)
31	Periphylla periphylla, diameter	P. periphylla diam	mm	Acuña, José Luis	see reference(s)
32	Periphylla periphylla, body mass, wet	P. periphylla BM wet	mg	Acuña, José Luis	see reference(s)
33	Periphylla periphylla, body mass, carbon	P. periphylla BM C	mg	Acuña, José Luis	see reference(s)
34	Periphylla periphylla, swimming speed	P. periphylla swim speed	µm/s	Acuña, José Luis	see reference(s)
35	Phialidium gregarium, diameter	P. gregarium diam	mm	Acuña, José Luis	see reference(s)
36	Phialidium gregarium, swimming speed	P. gregarium swim speed	µm/s	Acuña, José Luis	see reference(s)
37	Phyllorhiza punctata, diameter	P. punctata diam	mm	Acuña, José Luis	see reference(s)
38	Phyllorhiza punctata, body mass, wet	P. punctata BM wet	mg	Acuña, José Luis	see reference(s)
39	Phyllorhiza punctata, body mass, carbon	P. punctata BM C	mg	Acuña, José Luis	see reference(s)
40	Phyllorhiza punctata, swimming speed	P. punctata swim speed	µm/s	Acuña, José Luis	see reference(s)
41	Stomolophus meleagris, diameter	S. meleagris diam	mm	Acuña, José Luis	see reference(s)
42	Stomolophus meleagris, body mass, wet	S. meleagris BM wet	mg	Acuña, José Luis	see reference(s)
43	Stomolophus meleagris, body mass, carbon	S. meleagris BM C	mg	Acuña, José Luis	see reference(s)
44	Stomolophus meleagris, swimming speed	S. meleagris swim speed	µm/s	Acuña, José Luis	see reference(s)

License:

Creative Commons Attribution 3.0 Unported (CC-BY-3.0)

Size:

419 data points

Data

Download dataset as tab-delimited text — use the following character encoding:

1 T:temp [°C]	2 Comment	3 A. victoria diam [mm]	4 A. victoria swim speed [µm/s]	5 A. aurita diam [mm]	6 A.aurita BM wet [mg]	7 A.aurita BM C [mg]	8 A.aurita swim speed [µm/s]	9 B. infundibulum diam [mm]	10 B. infundibulum swim speed [µm/s]	11 C. quinquecirrha diam [mm]	12 C. quinquecirrha BM wet [mg]	13 C. quinquecirrha BM C [mg]	14 C. quinquecirrha swim speed [µm/s]	15 C. capillata diam [mm]	16 C. capillata BM wet [mg]	17 C. capillata BM C [mg]	18 C. capillata swim speed [µm/s]	19 L. unguiculata diam [mm]	20 L. unguiculata BM wet [mg]	21 L. unguiculata BM C [mg]	22 L. unguiculata swim speed [µm/s]	23 L. tetraphylla diam [mm]	24 L. tetraphylla swim speed [µm/s]	25 M. cellularia diam [mm]	26 M. cellularia swim speed [µm/s]	27 M. leidyi diam [mm]	28 M. leidyi BM wet [mg]	29 M. leidyi BM C [mg]	30 M. leidyi swim speed [µm/s]	31 P. periphylla diam [mm]	32 P. periphylla BM wet [mg]	33 P. periphylla BM C [mg]	34 P. periphylla swim speed [µm/s]	35 P. gregarium diam [mm]	36 P. gregarium swim speed [µm/s]	37 P. punctata diam [mm]	38 P. punctata BM wet [mg]	39 P. punctata BM C [mg]	40 P. punctata swim speed [µm/s]	41 S. meleagris diam [mm]	42 S. meleagris BM wet [mg]	43 S. meleagris BM C [mg]	44 S. meleagris swim speed [µm/s]
	Digitized from fig. 3 in Colin and Costello (2002). No body carbon, WW or length-weight regressions were available.	5.000E1	1.060E-4
	Instantaneous swimming velocities digitized from time-series measurements of a single individual in fig. 2 of Costello and Colin (1994) and averaged. Conversion from bell diameter to WW according to Palomares and Pauly (2009) and references therein.			1.600E1	2.060E-4	3.370E-7	1.900E-5
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.300E1	1.140E-4	1.870E-7	8.660E-5
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.410E1	1.450E-4	2.370E-7	8.670E-5
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.590E1	2.010E-4	3.290E-7	9.250E-5
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.360E1	1.320E-4	2.160E-7	9.630E-5
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			7.580E1	1.580E-2	2.590E-5	1.070E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			2.790E1	9.720E-4	1.590E-6	1.170E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.110E2	4.560E-2	7.450E-5	1.190E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			3.300E1	1.550E-3	2.540E-6	1.200E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			5.950E1	8.040E-3	1.310E-5	1.340E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			3.970E1	2.610E-3	4.260E-6	1.370E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			3.840E1	2.370E-3	3.880E-6	1.400E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			2.220E1	5.170E-4	8.450E-7	1.570E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			3.910E1	2.490E-3	4.070E-6	1.620E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			2.010E1	3.910E-4	6.380E-7	1.670E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			9.860E1	3.300E-2	5.390E-5	1.740E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.300E2	7.160E-2	1.170E-4	1.900E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			7.540E1	1.560E-2	2.550E-5	2.590E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			1.070E2	4.090E-2	6.690E-5	2.780E-4
16	WW and average swimming velocity digitized from fig. 8 in McHenry and Jed (2003) and WW transformed to bell diameter (at rest) using equation in Table 1 of Palomares and Pauly (2009).			2.290E1	5.600E-4	9.150E-7	2.780E-4
	Ctenophore. Swimming velocity from Matsumoto and Harbison (1993). No size data were available.							0.000E0	8.500E-5
21	Instantaneous swimming velocities digitized from time-series measurements of a single individual in fig. 1 of Ford et al. (1997). WW from bell diameter using equation in Purcell (1992) .									5.450E1	1.250E-2	3.500E-5	2.660E-5
24	Bell diameter and average swimming velocity from fig.s 1. 2 and 3 in Matanoski et al. (2001). WW from bell diameter using equation in Purcell (1992).									8.000E1	4.140E-2	1.160E-4	1.300E-4
24	Bell diameter and average swimming velocity from fig.s 1. 2 and 3 in Matanoski et al. (2001). WW from bell diameter using equation in Purcell (1992).									1.000E2	8.290E-2	2.320E-4	1.800E-4
24	Bell diameter and average swimming velocity from fig.s 1. 2 and 3 in Matanoski et al. (2001). WW from bell diameter using equation in Purcell (1992).									7.000E1	2.730E-2	7.640E-5	1.450E-4
19	Instantaneous swimming velocities digitized from time-series measurements of a single individual in fig. 3 of Higgins III et al. (2008) and averaged. Conversion from bell diameter to WW according to Martinussen and Båmstedt (1995).													2.600E1	2.080E-3	1.120E-5	7.710E-5
	Instantaneous swimming velocities digitized from time-series measurements of a single individual in Fig. 9 of Costello & Colin (1995). Fresh weight supplied in the paper and transformed to DW and to CW according to general equations in Larson (1986).													3.900E1	6.810E-3	3.660E-5	1.310E-4
	Instantaneous swimming velocities digitized from time-series measurements of a single individual in fig. 6 of Costello and Colin (1995). From diameter to WW and to CW using conversions in Kremer et al. (1990).																	1.500E1	6.640E-3	3.720E-5	1.240E-4
	From Gladfelter (1973) as cited in Daniel (1983). No body carbon, WW or length-weight regressions were available.																					2.000E1	2.900E-4
	Digitized from fig. 3 in Colin and Costello (2002). No body carbon, WW or length-weight regressions were available.																							2.140E1	3.900E-5
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.620E1	1.520E-2	8.790E-6	1.340E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.220E1	2.230E-2	1.290E-5	1.530E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.220E1	2.230E-2	1.290E-5	1.630E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.670E1	1.570E-2	9.090E-6	1.710E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.030E1	9.390E-3	5.430E-6	1.730E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.670E1	1.570E-2	9.090E-6	1.780E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.270E1	2.290E-2	1.320E-5	1.780E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.020E1	1.980E-2	1.150E-5	1.830E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.120E1	2.100E-2	1.210E-5	1.880E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.430E1	1.310E-2	7.600E-6	2.040E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.180E1	1.070E-2	6.190E-6	2.070E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.030E1	9.390E-3	5.430E-6	2.090E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.120E1	2.100E-2	1.210E-5	2.110E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.520E1	2.630E-2	1.520E-5	2.160E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.220E1	2.230E-2	1.290E-5	2.350E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.620E1	1.520E-2	8.790E-6	2.520E-4
24	Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									3.120E1	2.100E-2	1.210E-5	2.630E-4
23	From Kreps et al. (1997). Body length and swimming velocity from Kolesar (2006). From body length to WW using equation in Purcell et al. (2001). From WW to DW according to Palomares and Pauly (2009). From DW to CW according to Kremer and Nixon (1976).																									2.080E1	9.840E-3	5.690E-6	6.000E-5
8	Swimming velocity from text in Youngbluth and Båmstedt (2001). We assumed the average size observed.																													3.000E1	3.460E-3	1.940E-5	1.670E-4
	Digitized from fig. 3 in Colin and Costello (2002). No body carbon, WW or length-weight regressions were available.																																	1.720E1	1.450E-4
19	From DAmbra et al. (2001). From diameter to WW according to Palomares and Pauly (2009). From WW to DW and from DW to CW according to Graham (2003).																																			2.800E1	2.420E-3	1.160E-5	1.730E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							2.010E1	2.280E-3	1.110E-5	4.810E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							2.440E1	4.290E-3	2.080E-5	7.090E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							2.990E1	8.270E-3	4.010E-5	7.830E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							3.470E1	1.330E-2	6.450E-5	8.160E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							3.990E1	2.090E-2	1.010E-4	8.370E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							4.480E1	3.050E-2	1.480E-4	7.340E-4
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							4.870E1	3.980E-2	1.930E-4	1.090E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							5.470E1	5.820E-2	2.820E-4	1.160E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							5.980E1	7.740E-2	3.750E-4	1.030E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							6.330E1	9.300E-2	4.510E-4	1.100E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							6.880E1	1.220E-1	5.900E-4	1.180E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							7.330E1	1.500E-1	7.250E-4	1.120E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							7.970E1	1.960E-1	9.490E-4	1.220E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							9.710E1	3.700E-1	1.790E-3	1.130E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							8.830E1	2.720E-1	1.320E-3	1.440E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							1.030E2	4.470E-1	2.170E-3	1.150E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							1.090E2	5.450E-1	2.640E-3	1.240E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							1.130E2	5.990E-1	2.900E-3	1.270E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							1.200E2	7.390E-1	3.580E-3	1.080E-3
23	Swimming velocities and diameters from fig. 4 in Larson (1987). WW supplied in the paper. From WW to DW and to CW following general conversions in Larson (1986).																																							1.260E2	8.520E-1	4.130E-3	1.220E-3
	Instantaneous swimming velocities digitized from time-series measurements of a single individual in Fig. 2 of Costello & Colin (1995). Fresh weight supplied in the paper. and transformed to DW and to CW according to general equations in Larson (1986).																																							3.300E1	1.660E-1	8.040E-4	2.390E-4