Table 1. Examples of thermoregulation and nesting strategies in social insects.
Thermoregulation
characteristic |
Thermoregulation
strategy |
Nest type | Taxa and species involved | References |
---|---|---|---|---|
Temperature is stable, same
as the temperature of the soil |
Brood
translocation |
Underground nests
only |
Ants:
Tetramorium
tsushimae, genus Lasius and Myrmica, Pogonomyrmex; Termites: genus Coptotermes |
Hólldobler & Wilson (1990)
23,
47,
Sanada - Morimura & al. (2005) 59 |
Temperature is not stable,
nest follows microhabitat temperature - oscillations can be buffered by insulation properties of microhabitat, sometimes natural structures can be used as heat accumulators |
Brood
translocation |
Nests in wood (logs
or stumps), in leaf litter, and under stones |
Ants:
Acromyrmex
ambiguus, Camponotus mus, C. vicinus, Myrmica punctiventris Roger, Onychomyrmex hedleyi, Polyrhachis simplex Termites: Kalotermitidae, Hodotermitidae, Rhinotermitidae, Termopsidae |
Banschbach & al. (1997)
32,
Bollazzi & Roces (2007) 30, Roces & Nunez (1989) 29, Chen & al. (2002) 56, Hólldobler & Wilson (1990) 23, 47, Miyata & al. (2003) 58, Ofer (1970) 57 |
Temperature oscillates, the
thermal gradient could be greater than the ambient temperature because the mound surface serves as a solar collector |
Brood
translocation |
Underground nest
with aboveground crater or similar structure + above ground soil (soil and fecal pellets mixture) or thatch mound |
Ants:
Acromyrmex heyeri,
genus Lasius, Myrmica rubra, Pogonomyrmex occidentalis, Solenopsis invicta, Termites: Cephalotermes rectangularis, Microceretermes edantatus, Thoracotermes macrothorax |
Weir (1973)
39,
Bollazzi & Roces (2002) 38, Cassil & al. (2002) 69, Cole (1994) 60, Hólldobler & Wilson (1990) 23, 47, Lüscher (1961) 62, Nielsen (1972) 67 |
Energy is accumulated by
spatial structure - silk caps of pupal cells storing sun energy |
Stable
temperature |
Paper nest | Hornet: Vespa orientalis | Ishay & Barenholz-Paniry
(1995) 64 |
Energy is accumulated by
sun bathing ants and is transported into the nest |
Stable
temperature |
Underground nest
+ above ground organic mounds |
Wood ants
: Formica rufa,
F.polyctena |
Coenen-Stass (1985)
14,
Frouz (2000) 15, Zahn (1958) 51 |
Nest is heated by the sun
(temperature of peripheral layers oscillates) + inner core with more stable temperature, heated by metabolism of termites or ants |
Stable
temperature (?) |
Aboveground nest
in wood (living trees) |
Termites:
Coptotermes
acinaciformis, C. frenchi |
Greaves (1964) 65 |
Stable
temperature (?) |
Underground nest
+ aboveground soil mound |
Termites: family
Termitidae,
Macrotermes bellicosus, Amitermes merionalis; Ants genus Atta - Atta texana, A. vollenweideri |
Kleineidam & al. (2001)
27,
Hólldobler & Wilson (1990) 23, 47, Korb & Linsenmair (1998, 2000) 25, 42, Grigg (1973) 26 |
|
Nest is heated by sun
(temperature of peripheral layers oscillates in small nests or stable in big ones) + inner core with stable temperature, heated by metabolism of ants + decay of organic material |
Stable
temperature |
Underground nest
+ above ground organic mounds |
Wood ants: genus
Formica
– Formica aquilonia, F. rufa, F. polyctena |
Coenen-Stass (1985)
14,
Frouz (2000) 15, Rosengren & al. (1987) 46, Zahn (1958) 51 |
Stable temperature inside the
cluster is maintained by ant metabolism |
Stable
temperature |
No stable nest -
bivouacs |
“Army ants”
Eciton burcheli,
E. hamatum |
Franks (1989)
48,
Schneirla (1971) 41 |
Active heating by members
using contractions of muscles |
Stable
temperature |
Wax or paper nest
in air or various cavities |
Honey bees, Stingless
bees, Bumble bees, Wasps: Apis mellifera, A. florea, A. dorsata, Bombus sp., Trigona denoiti, Vespa simillima, V.xanthoptera, V. crabro |
Fletcher & Crewe (1981)
61,
Heinrich (1981) 20, Ishay (1973) 63, Martin (1988) 50, Morse & Laigo (1969) 66, O´Donnell & Foster (2001) 68 |