Science education is experiencing a revitalization, as it is recognized that science should be accessible to everyone, not just society’s future scientists. One way to make the study of science more substantive to the non-major is to require a laboratory component for all science courses. The subject of applied botany with its emphasis on the practical aspects of plant science, the authors believe, will be appealing to the non-major as it exemplifies how a basic science can be applied to problem solving. Laboratory Manual for Applied Botany will make students realize that the study of plants is relevant to their lives and that they can participate in the discovery process of science. Although the manual includes much of the basic plant anatomy found in standard botany manuals, it differs in taking a practical approach, examining those plants and plant products that have sustained or affected human society.

The laboratory component of General Botany provides you the opportunity to view interrelationships between and among structures, to handle live or preserved material, to become familiar with the many terms we use throughout the course, and to learn how to use a microscope properly. Each of you will have your own microscope every week, no exceptions. This laboratory is fundamental, yet integral to your understanding of General Botany. The images in your manual are intended to serve as a guide while you view permanent or prepared slides. These must be viewed by each of you independently. At no time will questions be answered re where is a particular structure, etc., unless the slide is on the stage of your microscope and in focus.The content of the laboratory is rich, as is the terminology. You must come to lab prepared. You must come to lab knowing what the various terms you are about to deal with mean. There is no such thing as finishing early that simply isn't possible.In some laboratory exercises you will be asked to identify structures of an organism. For example, Examine slide 9 labeled Rhizopus sporangia w.m. and identify the mitosporangia, mitospores, columella, mitosporangiophore, and zygotes. In all likelihood you will only be able to see mitosporangia, mitospores, columella, and mitosporangiophores. If zygotes are absent in your slide you note that the population of hyphae you are examining are only reproducing asexually. These questions are written in this manner to further fortify your understanding of the organisms in question and not to trick you. Thinking about what you are viewing is not an option but a necessity!The phylogeny we have adopted in this course is a composite. No single phylogeny best reflects our collective understanding of all the organisms included in this course so we have created one that reflects modern thought and is based on both morphological and molecular data. None is any more correct or incorrect than is any other, but this is the one that we will use, and the one we deem as most acceptable.Rest assured, much still needs to be learned about the evolution of many of the groups we will study. Regardless, the course does provide you a general overview of the evolutionary biology of these various groups. This is your starting point, it is not the endpoint!

Contains 22 inquiry-based labs with minimum cost and equipment needs. The labs are designed to encourage a holistic understanding of plants-what plants do daily and through the seasons and years, as well as the plants' roles in the ecosytems. Lab investigations range from outdoor to in-lab; experimental to observational to discussion; short-term to long-term; partly to wholly student designed. The labs include learning objectives, an introduction and procedures, thought questions, and an extended assignment or investigation. Appendices cover the metric system, data presentation, and statistics (t-test).

Practical Botany for Advanced Level and Intermediate Students, Fifth Edition is a five-part laboratory manual covering the syllabuses in Botany of the advanced level students and other examinations of similar standard. This laboratory manual must be used in conjunction with textbooks of botany. The Introduction presents general instructions for practical work and for the keeping of practical notebooks and a list of apparatus and instruments required, as well as a summary of the characteristics of living organisms, the differences between plants and animals and the principles of plant classification. Part I describes the features and methods of use of the microscope, while Part II contains intensive discussions on the evaluation of the morphological, cytological, and histological aspects of plants. The remaining parts cover the biochemical, physiological, and genetic aspects of the plant experiments. This book is directed toward advanced and intermediate level botany teachers and students.

The user This manual is designed for the use of geo-scientists with an interest and need in developing palaeobiological materials as a potential source of data. To meet this objective practical procedures have been formatted for use by both professional and semi professional students with an initial understanding of palaeo biological research aims as a primary source of scientific data. I have attempted to provide an explanation and understanding of practical procedures which may be required by students undertaking palaeobiological projects as part of a degree course. The layout of this manual should be particularly beneficial in the instruction and training of geotechnologists and museum preparators. Graduate students and scientists requiring an outline of a preparation procedure will also be able to use the manual as a reference from which to assess the suitability of a procedure. This manual is also intended for use by the "committed amateur". Many of the techniques described in this manual have been devised by non-palaeontologists, and developed from methods used in archaeology, zoology and botany, as well as other areas of geology. A considerable number of the methods can be undertaken by the amateur, and in the case of many of the field procedures, should be used. This will ensure that specimens and samples can be conserved in such a manner as to facilitate any later research, and not invalidate the results of subsequent geochemical analytical techniques which might be employed.