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. 2022 Oct 7;17(1):84–94. doi: 10.1038/s41396-022-01326-4

Table 1.

Parameters characterizing geographic locations with GPS coordinates, altitude, mean and maximum depths and area of the 24 freshwater habitats studied by using CARD-FISH probes targeting all cryptophytes (CryptoB, [27]) and the CRY1 lineage (Cry1-652, [18]), presented on the basis of their increasing Chl-a concentrations and total phosphorus in epilimnetic water layers from ultra-oligotrophic to hypertrophic ones.

Lake/habitat Country Coordinates Trophic state Altitude (ASL) Max depth (Zmax) Mean depth (Zm) Area (km2) Chl-a (µg l−1) Total P (µg l−1)
Gossenköllesee (AL) Austria 47°13'46.0”N 11°00'50.0”E Ultra-oligotrophic 2417 9 4.7 0.015 0.39 1.2c
Attersee (DPL)a Austria 47°52'00.0”N 13°32'00.0”E Ultra-oligotrophic 469 171 25 46.2 0.60 1.5c
Motosu (DPL) Japan 35°27'50.3”N 138°35'01.9”E Ultra-oligotrophic 897 122 68 4.83 0.95 2–5d
Medard (MPL)a Czech Republic 50°10'45.9”N 12°35'15.4”E Oligotrophic 400 50 24 4.90 1.24 6.8
Traunsee (DPL)a Austria 47°52'00.0”N 13°48'00.0”E Oligotrophic 423 191 95 24.4 1.51 2.6c
Lago Maggiore (DPL)a Italy 45°58'00.0”N 8°39'00.0”E Oligo-mesotrophic 194 370 177 212.5 1.59 2.9c
Thun (DPL)a Switzerland 46°41'00.0”N 7°43'00.0”E Oligotrophic 558 217 136 47.7 1.68 1.9c
Sai (DPL) Japan 35°29'60.0”N 138°41'11.7”E Oligotrophic 900 71.7 34.8 2.10 1.94 3–8d
Most (MPL)a Czech Republic 50°32'13.0”N 13°38'40.0”E Oligo-mesotrophic 199 75 23 3.09 2.08 7.8
Biwa (DTL) Japan 35°21'38.2”N 136°10'03.8”E Oligo-mesotrophic 80 104 45.5 674 2.86 5–9d
Chūzenji (AL) Japan 36°44'12.2”N 139°28'56.8”E Oligo-mesotrophic 1269 163 95 11.5 2.86 3–9d
Ikeda (CL) Japan 31°14'11.8”N 130°33'48.6”E Oligo-mesotrophic 88 233 125 11.0 3.11 3–6d
Klíčava (DR)a,b Czech Republic 50°03'58.0”N 13°55'56.0”E Oligo-mesotrophic 269 35 13 0.53 4.53 13.3
Constance (DPL)a Germany 47°38'00.0”N 9°22'00.0”E Mesotrophic 395 252 100 536 4.60 2.9c
Lugano (DPL)a Switzerland 45°59'00.0”N 8°58'00.0”E Mesotrophic 271 288 171 27.5 4.60 4.4c
Milada (MPL)a Czech Republic 50°39'13.0”N 13°56'40.0”E Mesotrophic 146 25 14 2.52 5.80 20.4
Mondsee (DPL)a Austria 47°49'00.0”N 13°22'00.0”E Mesotrophic 483 68 34 14.2 7.21 4.8c
Zurich (DPL)a Switzerland 47°18'00.0”N 8°34'00.0”E Mesotrophic 406 137 49 67.3 7.81 5.4c
Římov (DR)a,b Czech Republic 48°50'54.7”N 14°29'26.6”E Meso-eutrophic 470 45 16 2.10 9.74 20.9
Žlutice (DR)a,b Czech Republic 50°05'18.0”N 13°07'40.0”E Eutrophic 511 21 7.7 1.38 11.8 21.2
Dehtář (SHL)b Czech Republic 49°00'28.8”N 14°17'58.0”E Hypertrophic 406 5.5 2.2 2.28 97.3 230
Kvítkovický (SHL)b Czech Republic 48°57'50.1”N 14°20'11.2”E Hypertrophic 424 3 1.1 0.24 174 250
Klec (SHL)b Czech Republic 49°05'26.9”N 14°45'59.4”E Hypertrophic 420 2 0.9 0.64 205 260
Rod (SHL)b Czech Republic 49°07'19.4”N 14°44'42.7”E Hypertrophic 430 2.2 0.6 0.22 224 360

Classification of hypertrophic shallow lakes follows the criteria suggested in Scheffer [36].

Lake classification: AL alpine lake, DPL deep prealpine lake, CL caldera lake, DTL deep tectonic lake, SHL shallow hypertrophic lake, MPL mine pit lake, DR dam reservoir.

aHabitats at which also hypolimnetic samples were analyzed (for details see Supplementary Table S1).

bHabitats at which bacterivory rates of total HNF and the probe-defined cryptophyte groups were studied using FLB tracers.

cTotal phosphorus (the last column) was detected as total dissolved phosphorus in the 0.2-µm filtered fraction or in unfiltered water samples (no index) at the sampling date.

dIn case neither was available, the annual range of total phosphorus values is listed for the epilimnion of the Japanese lakes recorded during 2015 [37].