Imagine scientists controlling the transmission of certain diseases through the genetic modification of mosquitoes. Eradicating harmful insects without the use of pesticides. Or increasing the fertility of some insects who in turn eat harmful arthropods or even a plant pathogen. Those are just a few of the real-world applications of insect transgenesis, which offers substantial benefits to humankind-whether it be in improving agricultural productivity or reducing the spread of insect-vectored diseases.
Insect Transgenesis: Methods and Applications is the first publication to describe in a comprehensive manner the various methodologies available, possible applications, and the risk assessment and regulatory issues involved in this fascinating area of research.
Divided into several areas of interest, the book starts with an overview of the history and methodology of insect gene transfer. The book then examines gene targeting by homologous recombination and recombination systems, and systems for transgenic selection, including visible eye color markers, chemical resistance, and fluorescent proteins. Other sections consider the use of various vector systems to integrate DNA into a host genome or to express foreign genes in a host organism.
The work concludes with strategies for the use of transgenic insects, including examples for agricultural pests and vectors of disease. Of particular interest are the final chapters that discuss risk assessment considerations and governmental regulatory procedures for the transport and release of transgenic insects.

Imagine scientists controlling the transmission of certain diseases through the genetic modification of mosquitoes. Eradicating harmful insects without the use of pesticides. Or increasing the fertility of some insects who in turn eat harmful arthropods or even a plant pathogen. Those are just a few of the real-world applications of insect transgenesis, which offers substantial benefits to humankind-whether it be in improving agricultural productivity or reducing the spread of insect-vectored diseases. Insect Transgenesis: Methods and Applications is the first publication to describe in a comprehensive manner the various methodologies available, possible applications, and the risk assessment and regulatory issues involved in this fascinating area of research. Divided into several areas of interest, the book starts with an overview of the history and methodology of insect gene transfer. The book then examines gene targeting by homologous recombination and recombination systems, and systems for transgenic selection, including visible eye color markers, chemical resistance, and fluorescent proteins. Other sections consider the use of various vector systems to integrate DNA into a host genome or to express foreign genes in a host organism. The work concludes with strategies for the use of transgenic insects, including examples for agricultural pests and vectors of disease. Of particular interest are the final chapters that discuss risk assessment considerations and governmental regulatory procedures for the transport and release of transgenic insects.

Elgar Research Agendas outline the future of research in a given area. Leading scholars are given the space to explore their subject in provocative ways, and map out the potential directions of travel. They are relevant but also visionary. We face many important global environmental problems today, including climate change, biodiversity destruction, and environmental health issues. Key among the tools we have to understand and solve these problems is research. This Research Agenda argues for a transdisciplinary approach to the study of environmental management to provide better understanding and outcomes leading to practical solutions. By describing the key strategies needed to overcome common global environmental challenges and to undertake successful interdisciplinary environmental research, this Research Agenda demonstrates the possibilities for successful transdisciplinary environmental research. A series of case studies shows how this transdisciplinary approach to research has improved understandings of environmental problems and their potential solutions. Discussing the types of participation required and the difficulties of incorporating diverse groups into research projects, this Research Agenda provides lessons in how to successfully undertake transdisciplinary research in order to meet these challenges. A Research Agenda for Environmental Management provides invaluable insights for interdisciplinary researchers in all fields affected by environmental management as well as students and scholars engaged in environmental research looking for ways to successfully integrate transdisciplinary approaches into their work. Contributors include: J. Abrams, D.B. Agusdinata, G. Alonso-Yanez, B. Barnett, N. Basiliko, K. Calvert, D. Cordoba, T. de Souza, M. del Carmen Fragoso Medina, J.L. Dunn, A. Eastmond, D.J. Flaspohler, K. Floress, V.S. Gagnon, A. Giang, H.S. Gorman, R.B. Guerrero, K.E. Halvorsen, R.M. Handler, M.A. Hanif, R.J. Heffron, J. Heyman, L. House-Peters, A. Kantamneni, J.L. Knowlton, R.A. LaFave, J. Licata, H.K. Lukosch, E.E. Mata-Zayas, R. Medeiros, M.A. Mesa-Jurado, D. Minakata, A. Mirchi, C. Moseley, T. Moya Mose, T.H. Mwampamba, C.J.V. Navarrete, E.A. Nielsen, M. Ohira, E. Ortega, J.A. Perlinger, E.C. Pischke, E.W. Prehoda, V.D.P. Risso, J.C. Sacramento-Rivero, M. Samimi, D. Sanchez, C. Schelly, T.L. Selfa, R. Shwom, R.V. Sidortsov, B. Tarekegne, G. Tchobanoglous, N.R. Urban, L.P. Volkow, S. Walker, D. Watkins, R.L. Winkler

The Space Telecommunications Radio System (STRS) defines an open architecture for software defined radios. This document describes the testing methodology to aid in determining the degree of compliance to the STRS architecture. Non-compliances are reported to the software and hardware developers as well as the NASA project manager so that any non-compliances may be fixed or waivers issued. Since the software developers may be divided into those that provide the operating environment including the operating system and STRS infrastructure (OE) and those that supply the waveform applications, the tests are divided accordingly. The static tests are also divided by the availability of an automated tool that determines whether the source code and configuration files contain the appropriate items. Thus, there are six separate step-by-step test procedures described as well as the corresponding requirements that they test. The six types of STRS compliance tests are: STRS application automated testing, STRS infrastructure automated testing, STRS infrastructure testing by compiling WFCCN with the infrastructure, STRS configuration file testing, STRS application manual code testing, and STRS infrastructure manual code testing. Examples of the input and output of the scripts are shown in the appendices as well as more specific information about what to configure and test in WFCCN for non-compliance. In addition, each STRS requirement is listed and the type of testing briefly described. Attached is also a set of guidelines on what to look for in addition to the requirements to aid in the document review process.