Documents morphology, taxonomy, phylogeny, evolutionary changes, and interactions of 23 orders of insects from the Middle Jurassic and Early Cretaceous faunas in Northern China This book showcases 23 different orders of insect fossils from the Mid Mesozoic period (165 to 125 Ma) that were discovered in Northeastern China. It covers not only their taxonomy and morphology, but also their potential implications on natural sciences, such as phylogeny, function, interaction, evolution, and ecology. It covers fossil sites; paleogeology; co-existing animals and plants in well-balanced eco-systems; insects in the spotlight; morphological evolution and functional development; and interactions of insects with co-existing plants, vertebrates, and other insects. The book also includes many elegant and beautiful photographs, line drawings, and 3-D reconstructions of fossilized and extant insects. Rhythms of Insect Evolution: Evidence from the Jurassic and Cretaceous in Northern China features chapter coverage of such insects as the: Ephemeroptera; Odonata; Blattaria; Isoptera; Orthoptera; Notoptera; Dermaptera; Chresmodidae; Phasmatodea; Plecoptera; Psocoptera; Homoptera; Heteroptera; Megaloptera; Raphidioptera; Neuroptera; Coleoptera; Hymenoptera Diptera; Mecoptera; Siphonaptera; Trichoptera and Lepidoptera. Combines academic natural science, popular science, and artistic presentation to illustrate rhythms of evolution for fossil insects from the Mid Mesozoic of Northern China Documents morphology, taxonomy, phylogeny, and evolutionary changes of 23 orders of insects from the Middle Jurassic and Early Cretaceous faunas in Northern China Presents interactions of insects with plants, vertebrates, and other insects based on well-preserved fossil evidence Uses photos of extant insects and plants, fossil and amber specimens, line drawings, and 3-D computer-generated reconstruction artworks to give readers clear and enjoyable impressions of the scientific findings Introduces insect-related stories from western and Chinese culture in text or sidebars to give global readers broader exposures Rhythms of Insect Evolution: Evidence from the Jurassic and Cretaceous in Northern China will appeal to entomologists, evolutionists, paleontologists, paleoecologists, and natural scientists.
Our goal in editing this book was to provide a comparative view of our current knowledge regarding circadian rhythms and clocks at different phylogenetic levels.
In this landmark volume, an international group of scientists has synthesized their collective expertise and insight into a newly unified vision of insect societies and what they can reveal about how sociality has arisen as an evolutionary ...
This two-volume edited book highlights and reviews the potential of the fossil record to calibrate the origin and evolution of parasitism, and the techniques to understand the development of parasite-host associations and their ...
Prokop J, Pecharová M, Ren D (2016) Hidden surface microstructures on Carboniferous insect Brodioptera sinensis ... ZooKeys 121:17–28 Ren D, Shih CK, Gao TP, Wang YJ, Yao YZ (eds) (2019) Rhythms of insect evolution: evidence from the ...
Evolutionary Ecology , 7 , 240-50 . Byers , G. W. , and Thornhill , R. ( 1983 ) ... On optimal oviposition behaviour by phytophagous insects . Theoretical Population Biology , 14 , 350-6 . ... Rhythms of Insect Evolution , 555-95 .
The first half of the book is concerned with circadian rhythmicity, the second with annual responses such as over-wintering diapause, seasonal morphs and cold hardiness.
By timing activity and behavior to different times of the day or night, biological rhythms aid insects in reducing competition for resources, promote physiological and behavioral adaptation, and influence evolution.
A general feature of acoustic signals in insects is their high degree of stereotypy and redundancy. ... calling energetics, mate choice, and predation, researchers have been asking questions about the evolution of chorusing for decades.
... to 52 phyla – bacteria, which can be transmitted horizontally (from environment) and/or vertically (from mother), and sometimes take up to 35% of the holobiont biomass (Reiswig, 1981; Schmitt et al., 2008; Webster et al., 2010).
The biological clock of an hematophagous insect: locomotor activity rhythms, circadian expression and downregulation after a blood meal. ... Which evolutionary processes influence natural genetic variation for phenotypic traits? Nat.