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Geography

Geography is the study of the lands, features, inhabitants, and phenomena of planet Earth. Geography is an all-encompassing discipline that seeks an understanding of Earth and its human and natural complexities—not merely where objects are, but also how they have changed and come to be. While geography is specific to Earth, many concepts can be applied more broadly to other celestial bodies in the field of planetary science. Geography has been called "a bridge between natural science and social science disciplines."

Fundamentals
, are a central element in the study of geography. Geography is a systematic study of the Earth (other celestial bodies are specified, such as "geography of Mars", or given another name, such as areography in the case of Mars, or selenography in the case of the Moon, or planetography for the general case), its features, and phenomena that take place on it. For something to fall into the domain of geography, it generally needs some spatial component that can be placed on a map, such as coordinates, place names, or addresses. This has led to geography being associated with cartography and place names. Although many geographers are trained in toponymy and cartology, this is not their main preoccupation. Geographers study the Earth's spatial and temporal distribution of phenomena, processes, and features as well as the interaction of humans and their environment. Because space and place affect a variety of topics, such as economics, health, climate, plants, and animals, geography is highly interdisciplinary. The interdisciplinary nature of the geographical approach depends on attentiveness to the relationships among physical and human phenomena and their spatial patterns. While narrowing down geography to a few key concepts is extremely challenging and subject to tremendous debate within the discipline, several sources have approached the topic. The 1st edition of the book "Key Concepts in Geography" broke down this into chapters focusing on "Space," "Place," "Time," "Scale," and "Landscape." The 2nd edition of the book expanded on these key concepts by adding "Environmental systems," "Social Systems," "Nature," "Globalization," "Development," and "Risk," demonstrating how challenging narrowing the field can be. These themes are Location, place, relationships within places (often summarized as Human-Environment Interaction), movement, and regions. The five themes of geography have shaped how American education approaches the topic in the years since. Thus, space is the most fundamental concept at the foundation of geography. The concept is so basic, that geographers often have difficulty defining exactly what it is. Absolute space is the exact site, or spatial coordinates, of objects, persons, places, or phenomena under investigation. Absolute space leads to the view of the world as a photograph, with everything frozen in place when the coordinates were recorded. Today, geographers are trained to recognize the world as a dynamic space where all processes interact, rather than as a static image on a map. Place Place is one of the most complex and important terms in geography. In human geography, place is the synthesis of the coordinates on the Earth's surface, the activity and use that occurs, has occurred, and will occur at the coordinates, and the meaning ascribed to the space by human individuals and groups. As a discipline then, the term place in geography includes all spatial phenomena occurring at a location, the diverse uses and meanings humans ascribe to that location, and how that location impacts and is impacted by all other locations on Earth. In physics, space and time are not separated, and are combined into the concept of spacetime. Geography is subject to the laws of physics, and when studying phenomena in space, time must be taken into account. Time in geography is more than just the historical record of events at discrete coordinates; it also includes modeling the dynamic movement of people, organisms, and things through space. Visualizing time over space is challenging in terms of cartography, and includes Space-Prism, advanced 3D geovisualizations, and animated maps. This concept is fundamental to the discipline of geography, not just cartography, in that phenomena being investigated appear different depending on the scale used. Scale is the frame that geographers use to measure space, and ultimately to understand a place. Several laws of geography have been proposed since then, most notably by Waldo Tobler and can be viewed as a product of the quantitative revolution. In general, some dispute the entire concept of laws in geography and the social sciences. These criticisms have been addressed by Tobler and others, such as Michael Frank Goodchild. • Arbia's law of geography: "Everything is related to everything else, but things observed at a coarse spatial resolution are more related than things observed at a finer resolution." • Spatial heterogeneity: Geographic variables exhibit uncontrolled variance. • The uncertainty principle: "That the geographic world is infinitely complex and that any representation must therefore contain elements of uncertainty, that many definitions used in acquiring geographic data contain elements of vagueness, and that it is impossible to measure location on the Earth's surface exactly." Additionally, several variations or amendments to these laws have been proposed in the literature, though they are less well supported. For example, one paper proposed an amended version of Tobler's first law of geography, referred to in the text as the Tobler–von Thünen law, which states: "Everything is related to everything else, but near things are more related than distant things, as a consequence of accessibility." ==Sub-disciplines==
Sub-disciplines
Geography is a branch of inquiry that focuses on spatial information on Earth. It is an extremely broad topic and can be broken down in multiple ways. The Four traditions of geography are often used to divide the different historical approach theories geographers have taken to the discipline. These traditions are the Spatial or Locational Tradition, the Man-Land or Human-Environment Interaction Tradition (sometimes referred to as Integrated geography), the Area Studies or Regional Tradition, and the Earth Science Tradition. The UNESCO Encyclopedia of Life Support Systems organizes geography into the three categories of human geography, physical geography, and technical geography. Some publications limit the number of branches to physical and human, describing them as the principal branches. Physical geography examines the natural environment and how organisms, climate, soil, water, and landforms produce and interact, studying spatial patterns in the natural environment, atmosphere, hydrosphere, biosphere, and geosphere. The difference between these approaches led to the development of integrated geography, which combines physical and human geography and concerns the interactions between the environment and humans. It is the newest of the branches, and often other terms are used in the literature to describe the emerging category. While human and physical geographers use the techniques employed by technical geographers, technical geography is more concerned with the fundamental spatial concepts and technologies than with the nature of the data. It aims to understand the physical problems and the issues of lithosphere, hydrosphere, atmosphere, pedosphere, and global flora and fauna patterns (biosphere). Physical geography is the study of earth's seasons, climate, atmosphere, soil, streams, landforms, and oceans. Physical geographers will often work in identifying and monitoring the use of natural resources. File:Cyclone Catarina from the ISS on March 26 2004.JPG|Climatology and meteorology File:90 mile beach.jpg|Coastal geography File:Gavin Plant.JPG|Environmental management File:Delicate Arch LaSalle.jpg|Geomorphology File:Receding glacier-en.svg|Glaciology File:Meander.svg|Hydrology and hydrography File:Khajuraho-landscape.jpg|Landscape ecology File:World11.jpg|Oceanography File:Pangea interpretacion.png|alt=a view of the supercontinent of pangea breaking up|Palaeogeography File:Soil profile.jpg|Pedology Human Human geography (or anthropogeography) is a branch of geography that studies the patterns and processes that shape human society. It encompasses the human, political, cultural, social, and economic aspects. In industry, human geographers often work in city planning, public health, or business analysis. Various approaches to the study of human geography have also arisen through time and include behavioral geography, culture theory, feminist geography, and geosophy. Human geographers study people and their communities, cultures, economies, and environmental interactions by studying their relations with and across space and place. Technical geography is the most recently recognized, and controversial, of the branches. Its use dates back to 1749, when a book published by Edward Cave organized the discipline into a section containing content such as cartographic techniques and globes. There are several other terms, often used interchangeably with technical geography to subdivide the discipline, including "techniques of geographic analysis," "Geographic Information Technology," "Geography method's and techniques," "Geographic Information Science," "geoinformatics," "geomatics," and "information geography". There are subtle differences between each concept and term; however, technical geography is one of the broadest, consistent with the naming convention of the other two branches, has been in use since the 1700s, and has been used by the UNESCO Encyclopedia of Life Support Systems to divide geography into themes. File:Stourhead Pantheon.jpg|Geodesign File:Meridian convergence and spehrical excess.png|Geodesy File:Worldwind.png|Geoinformatics File:Fig 4.4.png|Geographic information science File:Survey instruments-2.png|Geomatics File:gislayers.jpg|Geovisualization File:Euclidean Voronoi diagram.svg|Statistical geography File:Example_krig.png|Spatial analysis File:Sample of time geographical description.png|Time geography == Methods ==
Methods
's 1770 chart of New Zealand All geographic research and analysis start with asking the question "where," followed by "why there." Geographers start with the fundamental assumption outlined in Tobler's first law of geography, that "everything is related to everything else, but near things are more related than distant things." These methods revitalized the discipline in many ways, allowing scientific testing of hypotheses and proposing scientific geographic theories and laws. The quantitative revolution heavily influenced and revitalized technical geography, and lead to the development of the subfield of quantitative geography. Cartographers study the Earth's surface representation with abstract symbols (map making). Although other subdisciplines of geography rely on maps to present their analyses, the actual making of maps is sufficiently abstract to be regarded as a separate activity. Cartography has grown from a collection of drafting techniques into an actual science. Cartographers must learn cognitive psychology and ergonomics to understand which symbols convey information about the Earth most effectively, and behavioural psychology to induce readers of their maps to act on that information. They must learn geodesy and fairly advanced mathematics to understand how the shape of the Earth affects the distortion of map symbols projected onto a flat surface for viewing. It can be said, without much controversy, that cartography is the seed from which the larger field of geography grew. Geographic information systems Geographic information systems (GIS) store information about the Earth for accurate, automated retrieval by a computer, appropriate to the information's purpose. In addition to all of the other subdisciplines of geography, GIS specialists must understand computer science and database systems. GIS has revolutionized the field of cartography: nearly all mapmaking is now done with the assistance of some form of GIS software. The science of using GIS software and GIS techniques to represent, analyse, and predict the spatial relationships is called geographic information science (GISc). Remote sensing image of Death Valley colored using polarimetry Remote sensing is the art, science, and technology of obtaining information about Earth's features from measurements made at a distance. Remotely sensed data can be either passive, such as traditional photography, or active, such as LiDAR. Geostatistics Geostatistics deals with quantitative data analysis, specifically the application of a statistical methodology to the exploration of geographic phenomena. Geostatistics is used extensively in a variety of fields, including hydrology, geology, petroleum exploration, weather analysis, urban planning, logistics, and epidemiology. The mathematical basis for geostatistics derives from cluster analysis, linear discriminant analysis, and non-parametric statistical tests, and a variety of other subjects. Applications of geostatistics rely heavily on geographic information systems, particularly for the interpolation (estimate) of unmeasured points. Geographers are making notable contributions to quantitative methods. Qualitative methods Qualitative methods in geography are descriptive rather than numerical or statistical in nature. Qualitative cartography Qualitative cartography employs many of the same software and techniques as quantitative cartography. Another example is a deep map, or maps that combine geography and storytelling to produce a product with greater information than a two-dimensional image of places, names, and topography. This approach offers more inclusive strategies than more traditional cartographic approaches for connecting the complex layers that makeup places. In cultural geography, there is a tradition of employing qualitative research techniques, also used in anthropology and sociology. Participant observation and in-depth interviews provide human geographers with qualitative data. Geopoetics Geopoetics is an interdisciplinary approach that combines geography and poetry to explore the interconnectedness between humans, space, place, and the environment. Geopoetics is employed as a mixed methods tool to explain the implications of geographic research. It is often employed to address and communicate the implications of complex topics, such as the anthropocene. Interviews Geographers employ interviews to gather data and acquire valuable understandings from individuals or groups regarding their encounters, outlooks, and opinions concerning spatial phenomena. Interviews can be carried out through various mediums, including face-to-face interactions, phone conversations, online platforms, or written exchanges. Geographers typically adopt a structured or semi-structured approach during interviews involving specific questions or discussion points when utilized for research purposes. These questions are designed to extract focused information about the research topic while being flexible enough to allow participants to express their experiences and viewpoints, such as through open-ended questions. == Origin and history ==
Origin and history
The concept of geography is present in all cultures; therefore, the history of the discipline is a series of competing narratives, with concepts emerging at various points across space and time. The oldest known world maps date back to ancient Babylon from the 9th century BC. The best known Babylonian world map, however, is the Imago Mundi of 600 BC. The map as reconstructed by Eckhard Unger shows Babylon on the Euphrates, surrounded by a circular landmass showing Assyria, Urartu, and several cities, in turn surrounded by a "bitter river" (Oceanus), with seven islands arranged around it so as to form a seven-pointed star. The accompanying text mentions seven outer regions beyond the encircling ocean. The descriptions of five of them have survived. In contrast to the Imago Mundi, an earlier Babylonian world map dating back to the 9th century BC depicted Babylon as being further north from the center of the world, though it is not certain what that center was supposed to represent. Anaximander is credited with the invention of the gnomon, the simple, yet efficient Greek instrument that allowed the early measurement of latitude. The first rigorous system of latitude and longitude lines is credited to Hipparchus. He employed a sexagesimal system that was derived from Babylonian mathematics. The meridians were subdivided into 360°, with each degree further subdivided into 60 (minutes). To measure longitude at different locations on Earth, he suggested using eclipses to determine the time difference between them. The extensive mapping by the Romans as they explored new lands would later provide a high level of information for Ptolemy to construct detailed atlases. He extended the work of Hipparchus, using a grid system on his maps and adopting a degree length of 56.5 miles. From the 3rd century onwards, Chinese methods of geographical study and the writing of geographical literature became much more comprehensive than those found in Europe at the time (until the 13th century). Chinese geographers such as Liu An, Pei Xiu, Jia Dan, Shen Kuo, Fan Chengda, Zhou Daguan, and Xu Xiake wrote important treatises, yet by the 17th century advanced ideas and methods of Western-style geography were adopted in China. , reconstituted from Ptolemy's Geographia, written During the Middle Ages, the fall of the Roman empire led to a shift in the evolution of geography from Europe to the Islamic world. Abū Zayd al-Balkhī, originally from Balkh, founded the "Balkhī school" of terrestrial mapping in Baghdad. Suhrāb, a late tenth century Muslim geographer accompanied a book of geographical coordinates, with instructions for making a rectangular world map with equirectangular projection or cylindrical equidistant projection. Abu Rayhan Biruni (976–1048) first described a polar equi-azimuthal equidistant projection of the celestial sphere. He was regarded as the most skilled when it came to mapping cities and measuring the distances between them, which he did for many cities in the Middle East and the Indian subcontinent. He often combined astronomical readings and mathematical equations to develop methods of pinpointing locations by recording degrees of latitude and longitude. He also developed similar techniques for measuring the heights of mountains, the depths of the valleys, and the expanse of the horizon. He also discussed human geography and the planetary habitability of the Earth. He also calculated the latitude of Kath, Khwarezm, using the maximum altitude of the Sun, and solved a complex geodesic equation to accurately compute the Earth's circumference, which was close to modern values of the Earth's circumference. His estimate of 6,339.9 km for the Earth radius was only 16.8 km less than the modern value of 6,356.7 km. In contrast to his predecessors, who measured the Earth's circumference by sighting the Sun simultaneously from two different locations, al-Biruni developed a new method of using trigonometric calculations based on the angle between a plain and mountain top, which yielded more accurate measurements of the Earth's circumference, and made it possible for it to be measured by a single person from a single location. '' The European Age of Discovery during the 16th and 17th centuries, where many new lands were discovered, and accounts by European explorers such as Christopher Columbus, Marco Polo, and James Cook revived a desire for both accurate geographic detail and more solid theoretical foundations in Europe. In 1650, the first edition of the Geographia Generalis was published by Bernhardus Varenius, which was later edited and republished by others, including Isaac Newton. This textbook sought to integrate new scientific discoveries and principles into classical geography and approach the discipline like the other sciences emerging, and is seen by some as the division between ancient and modern geography in the West. The influence of Immanuel Kant, Alexander von Humboldt, Carl Ritter, and Paul Vidal de la Blache can be seen as a major turning point in geography from philosophy to an academic subject. Geographers such as Richard Hartshorne and Joseph Kerski have regarded both Humboldt and Ritter as the founders of modern geography, as Humboldt and Ritter were the first to establish geography as an independent scientific discipline. Over the past two centuries, advancements in computer technology have led to the development of geomatics and to the incorporation of new practices, such as participant observation and geostatistics, into geography's portfolio of tools. In the West during the 20th century, the discipline of geography went through four major phases: environmental determinism, regional geography, the quantitative revolution, and critical geography. The strong interdisciplinary links between geography and the sciences of geology and botany, as well as economics, sociology, and demographics, have also grown greatly, especially as a result of earth system science that seeks to understand the world in a holistic view. New concepts and philosophies have emerged from the rapid advances in computing, quantitative methods, and interdisciplinary approaches. The 1962 book Theoretical Geography by William Bunge, which argued for a nomothetic approach to geography and that from a purely spatial perspective there was no real difference between human and physical geography, has been described by Kevin R. Cox as "perhaps the seminal text of the spatial-quantitative revolution." In 1970, Waldo Tobler proposed the first law of geography, "everything is related to everything else, but near things are more related than distant things." This law summarizes the first assumption geographers make about the world. == Related fields ==
Related fields
Geology shows the relationship between igneous, sedimentary, and metamorphic rocks. The disciplines of geography, especially physical geography, and geology have a significant overlap. In the past, the two have often shared academic departments at universities, a point that has led to conflict over resources. Both disciplines do seek to understand the rocks on the Earth's surface and the processes that change them over time. Geology employs many of the tools and techniques of technical geographers, such as GIS and remote sensing to aid in geological mapping. However, geology includes research that goes beyond the spatial component, such as the chemical analysis of rocks and biogeochemistry. History The discipline of history has a significant overlap with geography, especially human geography. Like geology, history and geography have shared university departments. Geography provides the spatial context within which historical events unfold. The study of systems larger than the Earth itself usually forms part of Astronomy or Cosmology, while the study of other planets is usually called planetary science. Alternative terms such as areography (geography of Mars) have been employed to describe the study of other celestial objects. Ultimately, geography may be considered a subdiscipline within planetary science, and planetary science links geography with fields like astronomy and physics. == See also ==
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