Bibliography of biology

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Title page of the 1859 Murray edition of the Origin of Species by Charles Darwin. Origin of Species title page.jpg
Title page of the 1859 Murray edition of the Origin of Species by Charles Darwin.

This bibliography of biology is a list of notable works, organized by subdiscipline, on the subject of biology. [1] [2]

Contents

Biology is a natural science concerned with the study of life and living organisms, including their structure, function, growth, origin, evolution, distribution, and taxonomy. [3] Biology is a vast subject containing many subdivisions, topics, and disciplines. Subdisciplines of biology are recognized on the basis of the scale at which organisms are studied and the methods used to study them. [4]

Anatomy

Avicenna's Canon: opening decoration and invocation to Allah from a 16th-century manuscript. Avicenna canon 1597.jpg
Avicenna's Canon: opening decoration and invocation to Allah from a 16th-century manuscript.

This section contains a list of works in anatomy, the study of the structure of living things. [5]

A landmark publication in anatomy and medicine.

It is the 400th birthyear of the beautiful book which graces the lectern in front of me, the most artistic book and one of the most illuminating in the history of medicine. As Osier remarked, 1543 is a starred year in the history of science. In it appeared the two great works which inaugurated modern science, Copernicus' Revolutions of the heavenly bodies, which gave us a rational and abiding explanation of the workings of the macrocosm, the great universe, and Vesalius' Fabrica, which for the first time fully, and for the first time accurately, portrayed not only the structure but to some extent also the workings of the body of man, that mysterious spiritual animal which the Middle Ages called the microcosm or little universe.

Dr. William Willoughby Francis, 1943, [7]
First published under the title Gray's Anatomy: Descriptive and Surgical in Great Britain in 1858, and the following year in the United States. Gray died after the publication of the 1860 second edition, at the age of 34, but his book was continued by others. In 2008, for the 150th anniversary of the first edition, the 40th edition was released. [8]

Biophysics

This section is a list of works on biophysics, an interdisciplinary science that uses the methods of physical science to study biological systems.

Galvani's researches into stimulating muscles with electricity. His theory of an "animal electric fluid" was later disproved by Alessandro Volta, but stimulated research into bioelectricity. [9]

Botany

This section is a list of works on botany, [10] [11] the scientific study of plant life. [12]

Cell biology

Title page of Micrographia. Micrographia title page.gif
Title page of Micrographia.

This section contains a list of works on cell biology, [13] the study of cells – their physiological properties, their structure, the organelles they contain, interactions with their environment, their life cycle, division and death.

Ecology

This section contains a list of works in ecology, [14] the scientific study of the relations that living organisms have with respect to each other and their natural environment. [15]

Turned descriptive faunistic/floristic biogeography into a new discipline, ecology. Based on his botanical investigations from Tropics to tundra, Warmings aimed to explain how similar environmental challenges (drought, flooding, cold, salt, herbivory etc.) were solved by plants in similar ways everywhere in the World, despite the different descent of species on different continents.
Gause formulated his Competitive exclusion principle, through experiments involving paramecia. The principle holds that no two species can co-exist for long if they have to compete for highly similar resources. This outcome has two preconditions: 1) panmixis of individuals of competing species, 2) the environment is homogeneous in time and space. These conditions may be met by aquatic microorganisms grown under laboratory conditions. However, in most real-world biotic communities, both conditions are likely to be violated from moderately to strongly. Due to its simplicity and intuitiveness, Gause's Competitive exclusion principle has had a great impact on subsequent ecological thinking.

Evolutionary biology

This section contains a list of works on evolution, [16] the change across successive generations in the heritable characteristics of biological populations.

Until the publication of this encyclopedia much of the European scientific community thought that all animals were created by God about 6,000 years ago. Not only did this 44-volume encyclopedia contain all descriptive biological knowledge of its time, it offered a new theory. One hundred years before Darwin, Buffon claimed that man and ape might have a common ancestor. His work also had a significant impact on ecology.

It is no exaggeration to claim that virtually all the well-known writers of the Enlightenment, and even of later generations, in France as well as in other European countries were Buffonians, either directly or indirectly.

Mayr, 2000 [18]
In September 1838 Charles Darwin conceived his theory of natural selection as the cause of evolution, then as well as developing his career as a naturalist worked privately on finding evidence and answering possible objections, circulating essays written in 1842 and 1844 to his friends. Wallace, who was corresponding with Darwin from Borneo, arrived independently at the same theory. He wrote his paper On The Tendency of Varieties to Depart Indefinitely from the Original Type in February 1858 and sent it to Darwin, who received it on 18 June 1858 and passed it to Lyell and Hooker. They arranged for a joint publication of Wallace's paper and an extract from Darwin's 1844 essay; this was read to the Linnean Society of London on 1 July 1858, and printed in the Zoological Journal of the Linnean Society 3: 46-50. It had little impact at the time, but spurred Darwin to write an "abstract" of the "big book" Natural Selection he was then working on; this condensed version was published in November 1859 as On the Origin of Species . [19]
The Origin of Species is one of the hallmark works of biology. In this shortened abstract of his intended "big book" on Natural Selection, Darwin details his theory that organisms gradually evolve through a process of natural selection, and this process leads to the formation of new species. It was first published on November 24, 1859 and the initial print run was oversubscribed by booksellers at Murray's Autumn sale the day before.
Darwin presents a theory of natural selection that is in most aspects identical to the theories now accepted by scientists. He carefully argues out this theory by presenting accumulated scientific evidence from his voyage on the Beagle in the 1830s, and from his continuing studies up to the date of publication. His studies continued with the book being revised accordingly; the most extensive revisions were the 6th and final edition.
Darwin's theory of evolution by natural selection, with its tree-like model of branching common descent, has become the unifying theory of the life sciences. The theory explains the diversity of living organisms and their adaptation to the environment. It makes sense of the geologic record, biogeography, parallels in embryonic development, biological homologies, vestigiality, cladistics, phylogenetics and other fields, with unrivalled explanatory power; it has also become essential to applied sciences such as medicine and agriculture. [19] [20]
In the preface, Fisher considers some general points, including that there must be an understanding of natural selection distinct from that of evolution, and that the then-recent advances in the field of genetics (see history of genetics) now allowed this. In the first chapter, Fisher considers the nature of inheritance, rejecting blending inheritance in favour of particulate inheritance. The second chapter introduces Fisher's fundamental theorem of natural selection. The third considers the evolution of dominance, which Fisher believed was strongly influenced by modifiers. The last five chapters (8-12) include Fisher's more idiosyncratic views on eugenics. One of the founding works of population genetics. [21]
Wilson introduced the term sociobiology as an attempt to explain the evolutionary mechanics behind social behaviors such as altruism, aggression, and nurturance. Wilson's book sparked one of the great scientific controversies in biology of the 20th century. [22] [23] [24]
Critically revisits Haeckel's idea that ontogeny recapitulates phylogeny. Gould presents heterochrony as a concept that allows us to describe the majority of developmental processes in evolution. This book played a significant role at the time by bringing the evolutionary biology community back to examine developmental biology, ignored for many years.
A synthesis of many of the ideas of Evolutionary Psychology. This field posits that there are insights into the way that the mind works if you view our cognitive capabilities as the adaptive result of evolution. Synthesizes the work of many Evolutionary Psychologists and provides a comprehensive starting point for inquiries into (exactly as the title states) how the mind works.

Genetics

This section contains a list of works on genetics, the science of genes, heredity, and variation in living organisms. [25] [26] [27]

The result of years spent studying genetic traits in pea plants. Mendel compared seven discrete traits. Through experimentation, Mendel discovered that one inheritable trait would invariably be dominant to its recessive alternative. This model, later known as Mendelian inheritance or Mendelian genetics, provided an alternative to blending inheritance, which was the prevailing theory at the time. [28]
Based on a series of public lectures delivered at Trinity College, Dublin. Schrödinger's lecture focused on one important question: "how can the events in space and time which take place within the spatial boundary of a living organism be accounted for by physics and chemistry?" [29] He introduced the idea of an "aperiodic crystal" that contained genetic information in its configuration of covalent chemical bonds. In the 1950s, Schrödinger's idea of an aperiodic crystal stimulated enthusiasm for discovering the genetic molecule. Francis Crick, co-discoverer of the structure of DNA, credited Schrödinger's book with presenting an early theoretical description of how the storage of genetic information would work, and acknowledged the book as a source of inspiration for his initial research. [30]

Microbiology

This section contains a list of publications on microbiology. [32] Microbiology is the study of microorganisms , which are defined as any microscopic organism that comprises either a single cell (unicellular), cell clusters or no cell at all (acellular). [33]

Molecular biology

This section contains a list of works on molecular biology, [34] the study of the molecular basis of biological activity.

Described a molecular structure for DNA that was consistent with X-ray diffraction data and had implications for the nature of ineritance.

Physiology

This section contains a list of works on physiology, the science of the function of living systems. This includes how organisms, organ systems, organs, cells and bio-molecules carry out the chemical or physical functions that exist in a living system. [35]

Taxonomy

Title page of the 10th edition of Systema naturae by Carl Linnaeu. Linnaeus1758-title-page.jpg
Title page of the 10th edition of Systema naturæ by Carl Linnæu.

This section contains a list of works on taxonomy, the practice and science of classification or the result of it. [36]

Zoology

This section contains a list of works on zoology, [39] the study of the animal kingdom, including the structure, embryology, evolution, classification, habits, and distribution of all animals, both living and extinct. [40]

Encyclopedia of nature. It included many areas that are not considered to be part of nature sciences today - from geography, botany, zoology to painting. The encyclopedia was also novel with respect to its structure. It was the first to use references, table of contents and tables of animal characteristics.
Observations on birds and many other aspects of the natural world that White observed near where he lived.

See also

Related Research Articles

<span class="mw-page-title-main">Evolution</span> Change in the heritable characteristics of biological populations

Evolution is the change in the heritable characteristics of biological populations over successive generations. It occurs when evolutionary processes such as natural selection and genetic drift act on genetic variation, resulting in certain characteristics becoming more or less common within a population over successive generations. The process of evolution has given rise to biodiversity at every level of biological organisation.

<span class="mw-page-title-main">Genetics</span> Science of genes, heredity, and variation in living organisms

Genetics is the study of genes, genetic variation, and heredity in organisms. It is an important branch in biology because heredity is vital to organisms' evolution. Gregor Mendel, a Moravian Augustinian friar working in the 19th century in Brno, was the first to study genetics scientifically. Mendel studied "trait inheritance", patterns in the way traits are handed down from parents to offspring over time. He observed that organisms inherit traits by way of discrete "units of inheritance". This term, still used today, is a somewhat ambiguous definition of what is referred to as a gene.

<span class="mw-page-title-main">Heredity</span> Passing of traits to offspring from the species parents or ancestor

Heredity, also called inheritance or biological inheritance, is the passing on of traits from parents to their offspring; either through asexual reproduction or sexual reproduction, the offspring cells or organisms acquire the genetic information of their parents. Through heredity, variations between individuals can accumulate and cause species to evolve by natural selection. The study of heredity in biology is genetics.

<span class="mw-page-title-main">Natural selection</span> Mechanism of evolution by differential survival and reproduction of individuals

Natural selection is the differential survival and reproduction of individuals due to differences in phenotype. It is a key mechanism of evolution, the change in the heritable traits characteristic of a population over generations. Charles Darwin popularised the term "natural selection", contrasting it with artificial selection, which is intentional, whereas natural selection is not.

Zoology is the scientific study of animals. Its studies include the structure, embryology, classification, habits, and distribution of all animals, both living and extinct, and how they interact with their ecosystems. Zoology is one of the primary branches of biology. The term is derived from Ancient Greek ζῷον, zōion ('animal'), and λόγος, logos.

<span class="mw-page-title-main">Modern synthesis (20th century)</span> Fusion of natural selection with Mendelian inheritance

The modern synthesis was the early 20th-century synthesis of Charles Darwin's theory of evolution and Gregor Mendel's ideas on heredity into a joint mathematical framework. Julian Huxley coined the term in his 1942 book, Evolution: The Modern Synthesis. The synthesis combined the ideas of natural selection, Mendelian genetics, and population genetics. It also related the broad-scale macroevolution seen by palaeontologists to the small-scale microevolution of local populations.

<span class="mw-page-title-main">Lamarckism</span> Scientific hypothesis about inheritance

Lamarckism, also known as Lamarckian inheritance or neo-Lamarckism, is the notion that an organism can pass on to its offspring physical characteristics that the parent organism acquired through use or disuse during its lifetime. It is also called the inheritance of acquired characteristics or more recently soft inheritance. The idea is named after the French zoologist Jean-Baptiste Lamarck (1744–1829), who incorporated the classical era theory of soft inheritance into his theory of evolution as a supplement to his concept of orthogenesis, a drive towards complexity.

The history of zoology before Charles Darwin's 1859 theory of evolution traces the organized study of the animal kingdom from ancient to modern times. Although the concept of zoology as a single coherent field arose much later, systematic study of zoology is seen in the works of Aristotle and Galen in the ancient Greco-Roman world. This work was developed in the Middle Ages by Islamic medicine and scholarship, and in turn their work was extended by European scholars such as Albertus Magnus.

<span class="mw-page-title-main">History of biology</span>

The history of biology traces the study of the living world from ancient to modern times. Although the concept of biology as a single coherent field arose in the 19th century, the biological sciences emerged from traditions of medicine and natural history reaching back to Ayurveda, ancient Egyptian medicine and the works of Aristotle, Theophrastus and Galen in the ancient Greco-Roman world. This ancient work was further developed in the Middle Ages by Muslim physicians and scholars such as Avicenna. During the European Renaissance and early modern period, biological thought was revolutionized in Europe by a renewed interest in empiricism and the discovery of many novel organisms. Prominent in this movement were Vesalius and Harvey, who used experimentation and careful observation in physiology, and naturalists such as Linnaeus and Buffon who began to classify the diversity of life and the fossil record, as well as the development and behavior of organisms. Antonie van Leeuwenhoek revealed by means of microscopy the previously unknown world of microorganisms, laying the groundwork for cell theory. The growing importance of natural theology, partly a response to the rise of mechanical philosophy, encouraged the growth of natural history.

<span class="mw-page-title-main">Genetic variation</span> Difference in DNA among individuals or populations

Genetic variation is the difference in DNA among individuals or the differences between populations among the same species. The multiple sources of genetic variation include mutation and genetic recombination. Mutations are the ultimate sources of genetic variation, but other mechanisms, such as genetic drift, contribute to it, as well.

In biology, adaptation has three related meanings. Firstly, it is the dynamic evolutionary process of natural selection that fits organisms to their environment, enhancing their evolutionary fitness. Secondly, it is a state reached by the population during that process. Thirdly, it is a phenotypic trait or adaptive trait, with a functional role in each individual organism, that is maintained and has evolved through natural selection.

<i>Genetics and the Origin of Species</i> 1937 book by Theodosius Dobzhansky

Genetics and the Origin of Species is a 1937 book by the Ukrainian-American evolutionary biologist Theodosius Dobzhansky. It is regarded as one of the most important works of modern synthesis and was one of the earliest. The book popularized the work of population genetics to other biologists and influenced their appreciation for the genetic basis of evolution. In his book, Dobzhansky applied the theoretical work of Sewall Wright (1889–1988) to the study of natural populations, allowing him to address evolutionary problems in a novel way during his time. Dobzhansky implements theories of mutation, natural selection, and speciation throughout his book to explain the habits of populations and the resulting effects on their genetic behavior. The book explains evolution in depth as a process over time that accounts for the diversity of all life on Earth. The study of evolution was present, but greatly neglected at the time. Dobzhansky illustrates that evolution regarding the origin and nature of species during this time in history was deemed mysterious, but had expanding potential for progress to be made in its field.

<span class="mw-page-title-main">Biologist</span> A scientist studying living organisms

A biologist is a scientist who conducts research in biology. Biologists are interested in studying life on Earth, whether it is an individual cell, a multicellular organism, or a community of interacting populations. They usually specialize in a particular branch of biology and have a specific research focus.

Many scientists and philosophers of science have described evolution as fact and theory, a phrase which was used as the title of an article by paleontologist Stephen Jay Gould in 1981. He describes fact in science as meaning data, not known with absolute certainty but "confirmed to such a degree that it would be perverse to withhold provisional assent". A scientific theory is a well-substantiated explanation of such facts. The facts of evolution come from observational evidence of current processes, from imperfections in organisms recording historical common descent, and from transitions in the fossil record. Theories of evolution provide a provisional explanation for these facts.

Julian Huxley used the phrase "the eclipse of Darwinism" to describe the state of affairs prior to what he called the "modern synthesis". During the "eclipse", evolution was widely accepted in scientific circles but relatively few biologists believed that natural selection was its primary mechanism. Historians of science such as Peter J. Bowler have used the same phrase as a label for the period within the history of evolutionary thought from the 1880s to around 1920, when alternatives to natural selection were developed and explored—as many biologists considered natural selection to have been a wrong guess on Charles Darwin's part, or at least to be of relatively minor importance.

<span class="mw-page-title-main">Introduction to evolution</span> Non-technical overview of the subject of biological evolution

In biology, evolution is the process of change in all forms of life over generations, and evolutionary biology is the study of how evolution occurs. Biological populations evolve through genetic changes that correspond to changes in the organisms' observable traits. Genetic changes include mutations, which are caused by damage or replication errors in organisms' DNA. As the genetic variation of a population drifts randomly over generations, natural selection gradually leads traits to become more or less common based on the relative reproductive success of organisms with those traits.

<span class="mw-page-title-main">History of evolutionary thought</span>

Evolutionary thought, the recognition that species change over time and the perceived understanding of how such processes work, has roots in antiquity—in the ideas of the ancient Greeks, Romans, Chinese, Church Fathers as well as in medieval Islamic science. With the beginnings of modern biological taxonomy in the late 17th century, two opposed ideas influenced Western biological thinking: essentialism, the belief that every species has essential characteristics that are unalterable, a concept which had developed from medieval Aristotelian metaphysics, and that fit well with natural theology; and the development of the new anti-Aristotelian approach to modern science: as the Enlightenment progressed, evolutionary cosmology and the mechanical philosophy spread from the physical sciences to natural history. Naturalists began to focus on the variability of species; the emergence of palaeontology with the concept of extinction further undermined static views of nature. In the early 19th century prior to Darwinism, Jean-Baptiste Lamarck (1744–1829) proposed his theory of the transmutation of species, the first fully formed theory of evolution.

This article considers the history of zoology since the theory of evolution by natural selection proposed by Charles Darwin in 1859.

<span class="mw-page-title-main">Outline of evolution</span> Overview of and topical guide to change in the heritable characteristics of organisms

The following outline is provided as an overview of and topical guide to evolution:

The Extended Evolutionary Synthesis (EES) consists of a set of theoretical concepts argued to be more comprehensive than the earlier modern synthesis of evolutionary biology that took place between 1918 and 1942. The extended evolutionary synthesis was called for in the 1950s by C. H. Waddington, argued for on the basis of punctuated equilibrium by Stephen Jay Gould and Niles Eldredge in the 1980s, and was reconceptualized in 2007 by Massimo Pigliucci and Gerd B. Müller.

References

  1. Overmier 1989
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  6. Avicenna (Abū ʻAlī al-Ḥusayn ibn ʻAbd Allāh ibn Sīnā) (1999). The canon of medicine of Avicenna: [Edited and translated by O. Cameron Gruner]. adapted by Laleh Bakhtiar from translation of volume 1 by O. Cameron Gruner and Mazhar H. Shah. Chicago, IL: Kazi Publications. ISBN   978-1-871031-67-6.
  7. The Historical Library, Yale University School of Medicine, ed. (1943). The four hundredth anniversary celebration of the De humani corporis fabrica of Andreas Vesalius (1943) (PDF). New Haven, Conn: Tuttle, Morehouse & Taylor Company. p. 7.
  8. Standring, Susan, ed. (2008). Gray's anatomy: the anatomical basis of clinical practice (40th anniversary ed.). Edinburgh: Churchill Livingstone/Elsevier. ISBN   978-0-443-06684-9.
  9. Geddes, L. A.; Hoff, H. E. (1971). "The discovery of bioelectricity and current electricity The Galvani-Volta controversy". IEEE Spectrum. 8 (12): 38–46. doi:10.1109/MSPEC.1971.5217888. S2CID   51669636.
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  22. Cronin, Helena (1993). The ant and the peacock: altruism and sexual selection from Darwin to today (1st paperback ed.). Cambridge: Press Syndicate of the University of Cambridge. ISBN   978-0-521-45765-1.
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Further reading