Skip to main content
. 2014 Mar 21;2:280. Originally published 2013 Dec 19. [Version 2] doi: 10.12688/f1000research.2-280.v2

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