A growing interest in all things Maya brings an increasing number of visitors to prehistoric Maya ruins and contemporary Maya communities in Guatemala, Belize, El Salvador, western Honduras, the Yucatan Peninsula, and the southern areas of Chiapas and Tabasco, Mexico. For these visitors and indeed everyone with an interest in the Maya, this field guide highlights nearly 100 species of plants and animals that were significant to the ancient Maya and that continue to inhabit the Maya region today.

Drawing from the disciplines of biology, ecology, and anthropology, Victoria Schlesinger describes each plant or animal's habitat and natural history, identifying characteristics (also shown in a black-and-white drawing), and cultural significance to the ancient and contemporary Maya. An introductory section explains how to use the book and offers a concise overview of the history, lifeways, and cosmology of the ancient Maya. The concluding section describes the collapse of ancient Maya society and briefly traces the history of the Maya region from colonial times to the present.

Plant genotyping, or DNA fingerprinting of plants, is a technology that has matured and is poised for widespread practical application. Plant genotype analysis can be used for the identification of plants in commerce, plant breeding and research. This book examines the technology available and their application in the analysis of wild plant populations, germplasm collections and plant breeding. Special attention has been paid to microsatellite analysis, single nucleotide polymorphism (SNP) markers and new technologies, such as microarrays and non-gel based analysis of markers.

Microbiomes and Plant Health: Panoply and Their Applications includes the most recent advances in phytobiome research. The book emphasizes the use of modern molecular tools such as smart delivery systems for microbiol inoculation, next-generation sequencing, and genome mapping. Chapters discuss a variety of applications and examples, including the sugarcane microbiome, rhizoengineering, nutrient recycling, sustainable agricultural practices and bio-potential of herbal medicinal plants. Written by a range of experts with real-world practical insights, this title is sure to be an essential read for plant and soil microbiologists, phytopathologists, agronomists, and researchers interested in sustainable forestry and agriculture practices.

This volume reviews the historical roots and theoretical foundations of biological systematics in an approachable text. The author outlines the structure and main tasks of systematics. Conceptual history is characterized as a succession of scientific revolutions. The philosophical foundations of systematic research are briefly reviewed as well as the structure and content of taxonomic theories. Most important research programs in systematics are outlined. The book includes analysis of the principal problematic issues as "scientific puzzles" in systematics. This volume is intended for professional taxonomists, biologists of various specialties, students, as well as all those interested in the history and theory of biology and natural sciences. Key Features Considers the conceptual history of systematics as the framework of evolutionary epistemology Builds a hierarchically organized quasi-axiomatic system of taxonomic theory Contends that more reductionist taxonomic concepts are less objective Supports taxonomic pluralism by non-classic philosophy of science as a normal condition of systematics Documents that "taxonomic puzzles" result from conflict between monistic and pluralistic attitudes Related Titles de Queiroz, K. et al., eds. Phylonyms: A Companion to the PhyloCode (ISBN 978-1-1383-3293-5) Sigwart, J. D. What Species Mean: A User's Guide to the Units of Biodiversity (ISBN 978-1-4987-9937-9) Rieppel, O. Phylogenetic Systematics: Haeckel to Hennig (ISBN 978-1-4987-5488-0) Wilkins, J. S. Species: The Evolution of the Idea, 2nd ed. (ISBN 978-1-1380-5574-2)

A transgenic organism is a plant, animal, bacterium, or other living organism that has had a foreign gene added to it by means of genetic engineering. Transgenic plants can arise by natural movement of genes between species, by cross-pollination based hybridization between different plant species (which is a common event in flowering plant evolution), or by laboratory manipulations by artificial insertion of genes from another species. Methods used in traditional breeding that generate transgenic plants by non-recombinant methods are widely familiar to professional plant scientists, and serve important roles in securing a sustainable future for agriculture by protecting crops from pest and helping land and water to be used more efficiently.
There is worldwide interest in the biosafety issues related to transgenic crops because of issues such as increased pesticide use, increased crop and weed resistance to pesticides, gene flow to related plant species, negative effects on nontarget organisms, and reduced crop and ecosystem diversity. This book is intended to provide the basic information for a wide range of people involved in the release of transgenic crops. These will include scientists and researchers in the initial stage of developing transgenic products, industrialists, and decision makers. It will be of particular interest to plant scientists taking up biotechnological approaches to agricultural improvement for developing nations.
* Discusses traditional and future technology for genetic modification
* Compares conventional non-GM approaches and genetic modification
* Presents a risk assessment methodology for GM techniques
* Details mitigation techniques for human and environmental effects