The following research papers have been referred to in these pages:
[1A]
G. Kreil
Structure of melittin isolated from two species of honey bee
[1B]
G. Kreil
The structure of Apis dorsata melittin: Phylogenetic relationships between honey bees as deduced from sequence data
[2]
R.H. Crozier and Y.C. Crozier.
The Mitochondrial Genome of the honey bee Apis Mellifera: Complete Sequence and Genome Organization
[3]
H-W Tan et al.
The Complete Mitochondrial Genome of the Asiatic Cavity-Nesting honey bee Apis cerana (Hymenoptera: Apidae)
[4]
J. M. Cornuet and L Garnery
Mitochondrial DNA variability in honey bees and its phylogeographic implications
[5]
P Franck et al.
Molecular confirmation of a fourth lineage in honey bees from the Near East
[6]
C. W. Whitfield et al.
Thrice Out of Africa: Ancient and Recent Expansions of the Honey Bee,
Apis mellifera
[7]
Fan Han et al.
From where did the Western honey bee (Apis mellifera) originate?
[8]
A. Wallberg et al.
A worldwide survey of genome sequence variation provides insight into the evolutionary history of the honey bee Apis mellifera
[9]
A. B. Jensen et al.
Quantifying honey bee mating range and isolation in semi-isolated valleys by DNA microsatellite paternity analysis
[10]
M. D. Meixner et al.
Standard methods for characterizing subspecies and ecotypes of
Apis Mellifera
[11]
A. Papachristoforou et al.
The Bite of the honey bee: 2-Heptanone Secreted from honey bee Mandibles during a Bite acts as a Local Anaesthetic in Insects and Mammals
[12 ]
W.C. Rothenbuhler
Behavior genetics of nest cleaning in honey bees. IV. Resposes of F1 and backcross generations to disease-killed brood
[13]
R.F.A. Moritz
A reevaluation of the two-locus model for hygienic behaviour in honey bees
[14]
P.R Oxley et al.
Six quantitative trait loci influence task thresholds for hygienic behaviour in honey bees (Apis mellifera)
[15A]
T. C. Olofsson et al.
Lactic acid bacterial symbionts in honey bees – an unknown key to honey's antimicrobial and therapeutic activities
[15B]
T. C. Olofsson et al.Symbionts as Major Modulators of Insect Health: Lactic
Acid Bacteria and honey bees
[16]
A. Stabentheiner. et al.
Honey bee Colony Thermoregulation – Regulatory Mechanisms and Contribution of Individuals in Dependence on Age, Location and Thermal Stress
[17]
P. L. Borst.
The Perfect Swarm
[18]
M. Trhlin, J. Rajchard
Chemical communication in the honey bee
[19]
Tanya Pankiw
Cued in: honey bee pheromones as information flow and collective decision-making
[20]
K.N. Slessor et al.
Pheromone communication in the honey bee
[21]
J. Tautz.
Exploring the world of the honey bee
[22]
W. H. Lang.
Fungus spores as bee-bread
[23]
M. L. Smodis Skerl, A. Gregorc
Characteristics of hypopharyngeal glands in honey bees from a nurse colony
[24]
S. Bogdanov
Royal Jelly, Bee Brood: A Review
[25]
Yoko Honda et al.
10-Hydroxy-2-decenoic Acid, the Major Lipid Component of Royal Jelly
[26]
B. CharlesworthSex determination in the honey bee
[27]
J. Santomauro et. al.
Cannibalism of diploid drone larvae in the honey bee (Apis mellifera) is released by odd pattern of cuticular substances
[28]
E. Rademacher, M. Harz
Oxalic acid for the control of varroosis in honey bee colonies - a review
[29]
R E Page Jr , R W Marks
The population genetics of sex determination in honey bees: random mating in closed populations
[30]
S. Cardinal, B. N. Danforth
Bees diversified in the age of eudicots
[31]
S. J. M. Cridland et al.
The Complex Demographic History and Evolutionary Origin of the Western Honey Bee, Apis Mellifera
[32]
M. D. Meixner et al.
Honey bee genotypes and the environment
[33]
J. Hassett et al.
A significant pure population of the dark European honey bee (Apis mellifera mellifera) remains in Ireland
[34]
K. A. Dogantzis et al.Thrice out of Asia and the adaptive radiation of the western honey bee