The presentation aiding the lecture Fundamentals of Geology for the course CE 8392 Engineering Geology handled by Prof. Rathnavel Pon for Akshaya College of Engineering and Technology, Coimbatore
Geological mapping involves systematically observing and recording rock exposures and structural features in the field to produce maps that show the spatial distribution and relationships of rock units. The document discusses different types of geological maps including reconnaissance, regional, detailed, and specialized maps. It also describes common mapping techniques such as traversing, exposure mapping, drilling, underground mapping, and photo-geology. Field equipment used in mapping includes hammers, chisels, compasses, clinometers, tapes, and notebooks.
A map is a representation of Earth's surface that shows spatial relationships between objects by depicting their distance, direction, and size relative to each other on a flat surface. Maps convey information about a specific area and indicate its position relative to other parts of Earth. A geological map specifically shows the distribution and types of rocks and soils in an area. Geological maps are important tools used by geologists to understand Earth's structure and history, locate resources, and identify natural hazards.
Determination of strike and dip and geological cross section Aditya Mistry
This document provides steps for determining strike and dip from outcrop data and for constructing a geological cross section:
1. To determine strike and dip, first measure the map distance and elevation difference between two outcrops to calculate apparent dip. Then use trigonometry to locate the elevation of a third outcrop and mark the strike line. The dip direction is perpendicular to strike toward lower elevations.
2. To construct a geological cross section, first select a representative line of section. Then transfer topographic contours and structural features like faults onto the cross section. Plot bedding measurements and use them to extend lithological boundaries above and below the surface.
This document provides an overview of geology presented by Dinesh Sonwane. It defines geology as the study of the solid matter that constitutes the Earth, encompassing rocks, soil, gemstones. It discusses the various branches of geology including physical geology, geomorphology, mineralogy, petrology, structural geology, stratigraphy, paleontology, historical geology, applied geology, and the relationship between geology and other fields. The document also defines a mineral, describes the three main types of rocks and their uses, and provides brief explanations of structural geology and paleontology. It was presented by Dinesh Sonwane to his class on the topic of geology.
This document provides an overview of engineering geology and its scope. It discusses how geology relates to civil engineering projects in areas like construction, water resource development, and town planning. Key points covered include:
- Engineering geology deals with applying geology principles to safe and economic design of civil engineering projects.
- Geological maps, hydrological maps, and topographical maps are important for planning projects.
- Geological characteristics like bedrock, mechanical properties, and seismic activity influence project design.
- Geological knowledge aids in quality control of construction materials and sensitive construction areas.
- Geology is relevant for water resource exploration, development, and the water cycle understanding.
- Land utilization and regional planning requires considering natural geological features and
The presentation contains basic terms of Physical Geology which is related to Geology. It is a gross presentation including images and animated gif's for better understanding.
This document discusses sedimentary rocks, including their formation, classification, and characteristic textures and structures. Sedimentary rocks form through the lithification of sediments deposited under water. They are classified based on their composition into clastic rocks (formed from fragments of pre-existing rocks), chemical/evaporite rocks (formed by chemical precipitation), and organic rocks (containing organic matter). Key textures include grain size, shape, packing, and fabric. Common structures include stratification, lamination, cross-bedding, graded bedding, and ripple marks, which provide information about depositional environments.
Geological mapping involves systematically observing and recording rock exposures and structural features in the field to produce maps that show the spatial distribution and relationships of rock units. The document discusses different types of geological maps including reconnaissance, regional, detailed, and specialized maps. It also describes common mapping techniques such as traversing, exposure mapping, drilling, underground mapping, and photo-geology. Field equipment used in mapping includes hammers, chisels, compasses, clinometers, tapes, and notebooks.
A map is a representation of Earth's surface that shows spatial relationships between objects by depicting their distance, direction, and size relative to each other on a flat surface. Maps convey information about a specific area and indicate its position relative to other parts of Earth. A geological map specifically shows the distribution and types of rocks and soils in an area. Geological maps are important tools used by geologists to understand Earth's structure and history, locate resources, and identify natural hazards.
Determination of strike and dip and geological cross section Aditya Mistry
This document provides steps for determining strike and dip from outcrop data and for constructing a geological cross section:
1. To determine strike and dip, first measure the map distance and elevation difference between two outcrops to calculate apparent dip. Then use trigonometry to locate the elevation of a third outcrop and mark the strike line. The dip direction is perpendicular to strike toward lower elevations.
2. To construct a geological cross section, first select a representative line of section. Then transfer topographic contours and structural features like faults onto the cross section. Plot bedding measurements and use them to extend lithological boundaries above and below the surface.
This document provides an overview of geology presented by Dinesh Sonwane. It defines geology as the study of the solid matter that constitutes the Earth, encompassing rocks, soil, gemstones. It discusses the various branches of geology including physical geology, geomorphology, mineralogy, petrology, structural geology, stratigraphy, paleontology, historical geology, applied geology, and the relationship between geology and other fields. The document also defines a mineral, describes the three main types of rocks and their uses, and provides brief explanations of structural geology and paleontology. It was presented by Dinesh Sonwane to his class on the topic of geology.
This document provides an overview of engineering geology and its scope. It discusses how geology relates to civil engineering projects in areas like construction, water resource development, and town planning. Key points covered include:
- Engineering geology deals with applying geology principles to safe and economic design of civil engineering projects.
- Geological maps, hydrological maps, and topographical maps are important for planning projects.
- Geological characteristics like bedrock, mechanical properties, and seismic activity influence project design.
- Geological knowledge aids in quality control of construction materials and sensitive construction areas.
- Geology is relevant for water resource exploration, development, and the water cycle understanding.
- Land utilization and regional planning requires considering natural geological features and
The presentation contains basic terms of Physical Geology which is related to Geology. It is a gross presentation including images and animated gif's for better understanding.
This document discusses sedimentary rocks, including their formation, classification, and characteristic textures and structures. Sedimentary rocks form through the lithification of sediments deposited under water. They are classified based on their composition into clastic rocks (formed from fragments of pre-existing rocks), chemical/evaporite rocks (formed by chemical precipitation), and organic rocks (containing organic matter). Key textures include grain size, shape, packing, and fabric. Common structures include stratification, lamination, cross-bedding, graded bedding, and ripple marks, which provide information about depositional environments.
Engineering geology involves the application of geology to construction projects. It is concerned with the rock and soil conditions of construction sites. Engineering geology provides information vital for planning, designing, and building structures like dams, bridges, and buildings. It examines the geology, geomorphology, and material properties of construction sites to understand subsurface conditions, availability of construction materials, and geologic hazards that could impact structures. Subdisciplines of engineering geology include physical geology, geomorphology, mineralogy, petrology, and economic geology. It aids in site selection, foundation design, and town planning by considering the geologic factors that influence construction and development.
1. Geology is the science that studies the physical structure and composition of the Earth, as well as the processes that act on it.
2. Geology provides knowledge about construction materials like stones and clay that are important for civil engineering projects. It also helps understand natural geological processes like erosion that impact projects.
3. Geology is important for understanding groundwater resources and interpreting drilling data for projects like dams and bridges to ensure stable foundations.
Petrology is the study of rocks and their origins, compositions, textures, and structures. There are three main types of rocks: igneous rocks formed from cooled magma, sedimentary rocks formed from compressed sediments, and metamorphic rocks formed from existing rocks subjected to heat and pressure. Rocks are constantly changing between these types through geological processes in the rock cycle, powered by Earth's interior heat and the energy from the sun. Igneous rocks can become sedimentary rocks through weathering and erosion then become metamorphic rocks through burial and increased heat and pressure, and metamorphic rocks can melt to form new magma and igneous rocks.
Applied geomorphology examines how landforms and geological processes impact society and how human activities affect landforms. It provides solutions to issues like coastal erosion, landslides, and river management. Applied geomorphologists create maps, models, and predictions to help scientists, engineers, and decision-makers address hazards, land use, natural resources, and environmental changes. They also advise on public policy regarding human-landform interactions.
Weathering is an important geological mechanism which can destabilize the earth’s surface materials and remove them by erosive processes. Weathering is the physical disintegration and chemical decomposition of a rock mass on the land. It is a unique phenomena happening on the earth’ surface. Weathering is a collective term used to denote the mechanical, chemical and biological(organic) processes that take place on the earth’s surface. Weathering of rock-forming minerals can create new products from pre-existing rocks. In many regions, soils are the ultimate products of weathering. Weathering of rocks releases chemical compounds that become available for biological processes. It is necessary to study the factors that are influencing the weathering processes.
This document discusses metamorphism and metamorphic rocks. It defines metamorphism as the change in rocks due to increases in temperature and pressure. There are different types of metamorphism including contact, regional, and cataclastic metamorphism. Regional metamorphism occurs over large areas and results in strongly foliated rocks like slates, schists and gneisses. The document describes the different grades of metamorphism from low to high and the typical minerals formed. It also discusses structures in metamorphic rocks like foliation and banding. In conclusion, different metamorphic rocks like slates, schists and gneisses have various economic uses as building materials.
Geological mapping in Exploration Geology( surface and subsurface)HARITHA ANIL KUMAR
Geological mapping involves creating maps and sections that visually represent spatial geological relationships and interpretations based on field observations. Maps are created at various scales appropriate for the level of detail needed, from regional-scale maps showing broad patterns to more detailed outcrop maps of mineral prospects. Field equipment used in mapping includes compasses, clinometers, altimeters, and plane tables. Geophysical methods and aerial/satellite imagery can provide additional subsurface and regional data to supplement field mapping. Drilling and geostatistical analysis of subsurface data are also used to construct contour maps depicting formations, structures, and thickness changes.
This document provides an overview of engineering geology and rock mechanics. It discusses fundamentals such as lithology, rock structures, weathering, and rock mass classification systems. It also presents a case study on the 1928 failure of the St. Francis Dam in California, which was caused by unsuitable geological conditions including weakness along the San Francisquitto fault that were not properly considered in the dam's design and construction. The case study demonstrates the importance of engineering geological considerations for civil works.
The document discusses the physical properties of rocks and soils that are important for civil engineering projects. It describes measuring properties like unit weight, density, porosity, strength, and permeability. It then discusses specific gravity determination and how porosity is measured. Various stress types on rocks, including compressive and tensile strength, are defined. Methods for determining rock properties like point load index and Schmidt hammer rebound number are presented. The document also covers rock mass classification systems and significance of faults and folds for engineering projects, as well as weathering and alteration of rocks.
This document provides an overview of environmental geology and its relationship to humans and the environment. It discusses how geology studies the Earth's processes and materials. Environmental geology focuses on solving problems that arise between humans and the environment, such as natural hazards and resource issues. It also examines population growth trends, carrying capacity, sustainability, and case studies like Easter Island that demonstrate the impact of human activities on the environment over time.
Engineering geology is a branch of applied geology that deals with the application of geological knowledge and principles to civil engineering projects. It provides essential information for safe, stable, and economical design and construction of structures like buildings, dams, roads, and tunnels. Engineering geological studies are conducted during planning, design, construction, and post-construction phases of projects. The studies help understand site conditions, availability of construction materials, and how to mitigate geological hazards. Knowledge of geology is crucial for heavy construction projects and excavation works to plan realistically and design sound foundations.
This document discusses the application of remote sensing in geomorphology. Remote sensing involves acquiring information about the Earth's surface from a distance, using sensors on aerial platforms or satellites. It has several advantages for geomorphological mapping and analysis, including multi-temporal coverage to detect changes over time and multi-spectral data to better identify landforms. Both aerial photos and satellite imagery can be interpreted to extract geomorphological information and understand landform genesis and evolution. Formal training is required to properly interpret remote sensing data and relate image elements to landforms and geological processes.
Petrology
Definition of a rock, petrology. Classification of rocks-Geological classification of rocks. Rock Cycle. Classification of igneous Forms, structures and textures of igneous rocks. Classification of sedimentary rocks, and its structures and textures. Classification of metamorphic rocks, its structures and textures.
Megascopic Study of Granite, Dolerite, Basalt, Pegmatite, Charnockite, Sandstone, Shale, Limestone, Gneiss, Schist, Quartzite, Marble and Slate.
This document provides an introduction to geology and its importance from a civil engineering perspective. It discusses the definitions and branches of geology, including mineralogy, petrology, geophysics, stratigraphy, physical geology, hydrogeology, and structural geology. The branches study minerals, rocks, the structure and evolution of the Earth, rock layers and ages, geological processes and landforms, groundwater, and rock structures. The document emphasizes the importance of geology for civil engineers for site selection, understanding construction materials and ground conditions, planning projects, and treating geological features like faults or joints that could impact stability. A foundation in the introduction to geology and key branches is important for civil engineers.
This document summarizes information about reconstructing past climates using paleoclimate data and proxies. It discusses how temperature, CO2 levels, sea level, ocean currents, wind patterns, and other climate factors have changed over geological history. Specifically, it examines periods like the Paleocene-Eocene Thermal Maximum and Early Eocene Climatic Optimum, which saw much warmer global temperatures and higher CO2 than today. The Azolla event approximately 49 million years ago is also discussed, in which massive blooms of freshwater ferns in the Arctic helped draw down atmospheric CO2 and initiate global cooling.
There are two main forms of igneous rocks:
1) Extrusive rocks form from lava erupted at the Earth's surface and cool rapidly. They include lava flows, pyroclastic deposits like volcanic ash and tuff.
2) Intrusive rocks form from magma that cools below the surface. They can be concordant, forming sheets and domes parallel to layers, like sills and laccoliths, or discordant and cutting across layers, like dikes, batholiths, and volcanic necks.
This document provides an overview of sedimentary rocks, including their classification and common types. It discusses how sedimentary rocks form from sediments produced by weathering and are later cemented. The document classifies sedimentary rocks into detrital rocks (formed from rock fragments), chemically formed rocks like limestone, and residual deposits like laterite and soils. Detrital rocks like sandstone and shale are the most abundant sedimentary rocks, comprising around 95% of sedimentary layers and 4% and 0.75% of the Earth's crust, respectively.
Geochemical anomalies in drainage sedimentsPramoda Raj
The document discusses geochemical anomalies found in various types of drainage sediments that can be used for mineral exploration, including spring/seepage sediments, active stream sediments, flood plain sediments, lake sediments, and marine sediments. It explains that drainage sediments provide a sampling medium and anomalies may form from elements precipitating or being eroded, transported, and deposited. The document also notes that lake and marine sediments can indicate mineral deposits based on elements incorporated in sediments or precipitates.
This document provides an overview of the different branches of geology. It discusses the definition of geology as the study of the Earth, including its origin, structure, composition and history. Some of the key branches mentioned include physical geology, mineralogy, crystallography, petrology, structural geology, geophysics, stratigraphy, geochemistry, paleontology, historical geology, economic geology, mining geology, hydrogeology, geology of Pakistan, resources engineering, photo geology, remote sensing, engineering geology, and field geology. Each branch is studied to better understand different aspects of the Earth and its materials.
Geology is the study of the Earth, including its composition, structure, physical properties, history and the processes that shape it. The document outlines several key branches of geology, including economic geology, mining geology, petroleum geology, engineering geology, environmental geology, geochemistry, geomorphology, geophysics, historical geology, hydrogeology, mineralogy, paleontology, petrology, structural geology, sedimentology, stratigraphy and volcanology. Each branch deals with different aspects of the Earth and geological processes. Engineering geology specifically applies geological knowledge to civil engineering projects regarding construction materials, site selection, and safe design and construction.
This document discusses the role of geology in civil engineering. It begins with defining geology and its various branches including geochemistry, geologist, geological survey, and geological maps. It then discusses the different branches of geology such as physical geology, crystallography, mineralogy, petrology, structural geology, and stratigraphy. The document emphasizes that civil engineering geology involves applying geological knowledge to ensure safety, efficacy, and cost-effectiveness of engineering projects. Finally, it outlines the key roles of geology for civil engineering projects, which include providing construction materials, assisting with soil conservation and river/coastal works, aiding tunneling and road works, informing dam, bridge and building designs, assessing groundwater, creating geological
Engineering geology involves the application of geology to construction projects. It is concerned with the rock and soil conditions of construction sites. Engineering geology provides information vital for planning, designing, and building structures like dams, bridges, and buildings. It examines the geology, geomorphology, and material properties of construction sites to understand subsurface conditions, availability of construction materials, and geologic hazards that could impact structures. Subdisciplines of engineering geology include physical geology, geomorphology, mineralogy, petrology, and economic geology. It aids in site selection, foundation design, and town planning by considering the geologic factors that influence construction and development.
1. Geology is the science that studies the physical structure and composition of the Earth, as well as the processes that act on it.
2. Geology provides knowledge about construction materials like stones and clay that are important for civil engineering projects. It also helps understand natural geological processes like erosion that impact projects.
3. Geology is important for understanding groundwater resources and interpreting drilling data for projects like dams and bridges to ensure stable foundations.
Petrology is the study of rocks and their origins, compositions, textures, and structures. There are three main types of rocks: igneous rocks formed from cooled magma, sedimentary rocks formed from compressed sediments, and metamorphic rocks formed from existing rocks subjected to heat and pressure. Rocks are constantly changing between these types through geological processes in the rock cycle, powered by Earth's interior heat and the energy from the sun. Igneous rocks can become sedimentary rocks through weathering and erosion then become metamorphic rocks through burial and increased heat and pressure, and metamorphic rocks can melt to form new magma and igneous rocks.
Applied geomorphology examines how landforms and geological processes impact society and how human activities affect landforms. It provides solutions to issues like coastal erosion, landslides, and river management. Applied geomorphologists create maps, models, and predictions to help scientists, engineers, and decision-makers address hazards, land use, natural resources, and environmental changes. They also advise on public policy regarding human-landform interactions.
Weathering is an important geological mechanism which can destabilize the earth’s surface materials and remove them by erosive processes. Weathering is the physical disintegration and chemical decomposition of a rock mass on the land. It is a unique phenomena happening on the earth’ surface. Weathering is a collective term used to denote the mechanical, chemical and biological(organic) processes that take place on the earth’s surface. Weathering of rock-forming minerals can create new products from pre-existing rocks. In many regions, soils are the ultimate products of weathering. Weathering of rocks releases chemical compounds that become available for biological processes. It is necessary to study the factors that are influencing the weathering processes.
This document discusses metamorphism and metamorphic rocks. It defines metamorphism as the change in rocks due to increases in temperature and pressure. There are different types of metamorphism including contact, regional, and cataclastic metamorphism. Regional metamorphism occurs over large areas and results in strongly foliated rocks like slates, schists and gneisses. The document describes the different grades of metamorphism from low to high and the typical minerals formed. It also discusses structures in metamorphic rocks like foliation and banding. In conclusion, different metamorphic rocks like slates, schists and gneisses have various economic uses as building materials.
Geological mapping in Exploration Geology( surface and subsurface)HARITHA ANIL KUMAR
Geological mapping involves creating maps and sections that visually represent spatial geological relationships and interpretations based on field observations. Maps are created at various scales appropriate for the level of detail needed, from regional-scale maps showing broad patterns to more detailed outcrop maps of mineral prospects. Field equipment used in mapping includes compasses, clinometers, altimeters, and plane tables. Geophysical methods and aerial/satellite imagery can provide additional subsurface and regional data to supplement field mapping. Drilling and geostatistical analysis of subsurface data are also used to construct contour maps depicting formations, structures, and thickness changes.
This document provides an overview of engineering geology and rock mechanics. It discusses fundamentals such as lithology, rock structures, weathering, and rock mass classification systems. It also presents a case study on the 1928 failure of the St. Francis Dam in California, which was caused by unsuitable geological conditions including weakness along the San Francisquitto fault that were not properly considered in the dam's design and construction. The case study demonstrates the importance of engineering geological considerations for civil works.
The document discusses the physical properties of rocks and soils that are important for civil engineering projects. It describes measuring properties like unit weight, density, porosity, strength, and permeability. It then discusses specific gravity determination and how porosity is measured. Various stress types on rocks, including compressive and tensile strength, are defined. Methods for determining rock properties like point load index and Schmidt hammer rebound number are presented. The document also covers rock mass classification systems and significance of faults and folds for engineering projects, as well as weathering and alteration of rocks.
This document provides an overview of environmental geology and its relationship to humans and the environment. It discusses how geology studies the Earth's processes and materials. Environmental geology focuses on solving problems that arise between humans and the environment, such as natural hazards and resource issues. It also examines population growth trends, carrying capacity, sustainability, and case studies like Easter Island that demonstrate the impact of human activities on the environment over time.
Engineering geology is a branch of applied geology that deals with the application of geological knowledge and principles to civil engineering projects. It provides essential information for safe, stable, and economical design and construction of structures like buildings, dams, roads, and tunnels. Engineering geological studies are conducted during planning, design, construction, and post-construction phases of projects. The studies help understand site conditions, availability of construction materials, and how to mitigate geological hazards. Knowledge of geology is crucial for heavy construction projects and excavation works to plan realistically and design sound foundations.
This document discusses the application of remote sensing in geomorphology. Remote sensing involves acquiring information about the Earth's surface from a distance, using sensors on aerial platforms or satellites. It has several advantages for geomorphological mapping and analysis, including multi-temporal coverage to detect changes over time and multi-spectral data to better identify landforms. Both aerial photos and satellite imagery can be interpreted to extract geomorphological information and understand landform genesis and evolution. Formal training is required to properly interpret remote sensing data and relate image elements to landforms and geological processes.
Petrology
Definition of a rock, petrology. Classification of rocks-Geological classification of rocks. Rock Cycle. Classification of igneous Forms, structures and textures of igneous rocks. Classification of sedimentary rocks, and its structures and textures. Classification of metamorphic rocks, its structures and textures.
Megascopic Study of Granite, Dolerite, Basalt, Pegmatite, Charnockite, Sandstone, Shale, Limestone, Gneiss, Schist, Quartzite, Marble and Slate.
This document provides an introduction to geology and its importance from a civil engineering perspective. It discusses the definitions and branches of geology, including mineralogy, petrology, geophysics, stratigraphy, physical geology, hydrogeology, and structural geology. The branches study minerals, rocks, the structure and evolution of the Earth, rock layers and ages, geological processes and landforms, groundwater, and rock structures. The document emphasizes the importance of geology for civil engineers for site selection, understanding construction materials and ground conditions, planning projects, and treating geological features like faults or joints that could impact stability. A foundation in the introduction to geology and key branches is important for civil engineers.
This document summarizes information about reconstructing past climates using paleoclimate data and proxies. It discusses how temperature, CO2 levels, sea level, ocean currents, wind patterns, and other climate factors have changed over geological history. Specifically, it examines periods like the Paleocene-Eocene Thermal Maximum and Early Eocene Climatic Optimum, which saw much warmer global temperatures and higher CO2 than today. The Azolla event approximately 49 million years ago is also discussed, in which massive blooms of freshwater ferns in the Arctic helped draw down atmospheric CO2 and initiate global cooling.
There are two main forms of igneous rocks:
1) Extrusive rocks form from lava erupted at the Earth's surface and cool rapidly. They include lava flows, pyroclastic deposits like volcanic ash and tuff.
2) Intrusive rocks form from magma that cools below the surface. They can be concordant, forming sheets and domes parallel to layers, like sills and laccoliths, or discordant and cutting across layers, like dikes, batholiths, and volcanic necks.
This document provides an overview of sedimentary rocks, including their classification and common types. It discusses how sedimentary rocks form from sediments produced by weathering and are later cemented. The document classifies sedimentary rocks into detrital rocks (formed from rock fragments), chemically formed rocks like limestone, and residual deposits like laterite and soils. Detrital rocks like sandstone and shale are the most abundant sedimentary rocks, comprising around 95% of sedimentary layers and 4% and 0.75% of the Earth's crust, respectively.
Geochemical anomalies in drainage sedimentsPramoda Raj
The document discusses geochemical anomalies found in various types of drainage sediments that can be used for mineral exploration, including spring/seepage sediments, active stream sediments, flood plain sediments, lake sediments, and marine sediments. It explains that drainage sediments provide a sampling medium and anomalies may form from elements precipitating or being eroded, transported, and deposited. The document also notes that lake and marine sediments can indicate mineral deposits based on elements incorporated in sediments or precipitates.
This document provides an overview of the different branches of geology. It discusses the definition of geology as the study of the Earth, including its origin, structure, composition and history. Some of the key branches mentioned include physical geology, mineralogy, crystallography, petrology, structural geology, geophysics, stratigraphy, geochemistry, paleontology, historical geology, economic geology, mining geology, hydrogeology, geology of Pakistan, resources engineering, photo geology, remote sensing, engineering geology, and field geology. Each branch is studied to better understand different aspects of the Earth and its materials.
Geology is the study of the Earth, including its composition, structure, physical properties, history and the processes that shape it. The document outlines several key branches of geology, including economic geology, mining geology, petroleum geology, engineering geology, environmental geology, geochemistry, geomorphology, geophysics, historical geology, hydrogeology, mineralogy, paleontology, petrology, structural geology, sedimentology, stratigraphy and volcanology. Each branch deals with different aspects of the Earth and geological processes. Engineering geology specifically applies geological knowledge to civil engineering projects regarding construction materials, site selection, and safe design and construction.
This document discusses the role of geology in civil engineering. It begins with defining geology and its various branches including geochemistry, geologist, geological survey, and geological maps. It then discusses the different branches of geology such as physical geology, crystallography, mineralogy, petrology, structural geology, and stratigraphy. The document emphasizes that civil engineering geology involves applying geological knowledge to ensure safety, efficacy, and cost-effectiveness of engineering projects. Finally, it outlines the key roles of geology for civil engineering projects, which include providing construction materials, assisting with soil conservation and river/coastal works, aiding tunneling and road works, informing dam, bridge and building designs, assessing groundwater, creating geological
Geology is the study of the Earth, including its composition, structure, physical properties, history and processes. It includes disciplines like mineralogy, petrology, geomorphology, paleontology, stratigraphy, geochemistry, geophysics and oceanography. Geology has many applications and is important for understanding Earth's processes, evaluating natural resources, managing the environment, assessing geologic hazards, and other areas. The key branches of geology are physical geology, historical geology, mineralogy, petrology, economic geology, engineering geology, paleontology, and environmental geology. Geology plays an important role in mining, engineering, scientific development and other fields through applications like resource evaluation, site selection, and hazard assessment.
GEOLOGY FOR CIVIL ENGINEERING. Introduction to Engineering Geology.pdfJohnCarloEdejer
This document provides an overview of an introductory geology course for civil engineers. It outlines the course goals, which include developing critical thinking skills and a basic understanding of geological concepts and principles relevant to civil engineering. It describes the course structure, including required textbooks, lectures, exercises, exams and grading. Key topics that will be covered are also listed, such as the formation of mountains, continents and geological structures. Finally, it discusses the important relationship between geology and civil engineering for infrastructure projects.
Geology is the study of the Earth, including its composition, structure, physical properties, and history. It plays an important role in civil engineering by providing knowledge about soil and rock properties, which is necessary for foundation design, construction of highways, tunnels, and dams. The main branches of geology include physical geology, mineralogy, petrology, geomorphology, historical geology, economic geology, and others. Geology provides critical information for planning, designing, and constructing engineering projects and for mining activities.
This document provides an overview of an engineering geology course at Alzaiem Alazhari University. The course covers topics like the definition and importance of engineering geology, physical properties of soil and rocks, geological factors that affect engineering structures, and methods used in geological investigations and applications. Students will learn to understand engineering geology objectives, identify engineering problems with soil and rocks, use geological maps, and prepare reports using various geological methods. The course content includes introductions to physical geology, mineralogy, petrology, structural geology, and applications of geological investigations in areas like mining, landslides, and coastal protection. Students will be assessed through written exams, quizzes, tutorials, and assignments.
Geology is the study of the Earth, its composition, structure and processes. It is important for civil engineering as it provides information about construction materials and site conditions. Geology helps in planning, design and construction of projects. It is also useful for mining engineering and groundwater resource development. Geology can be divided into physical geology and historical geology. The main branches of geology include mineralogy, petrology, structural geology, geomorphology, economic geology, stratigraphy, paleontology and paleogeography.
Basic concepts of Engineering geology from various books and internet images, which will be helpfull to many civil, petroleum and mining engineering students at basic level.
Geochemistry branches of geolchemistry.pptxIsmailKatun1
This document provides an introduction to geochemistry and its branches. It defines geochemistry as using chemistry to understand Earth processes. The goals of geochemistry are determining the distribution of elements in Earth and the solar system, and studying chemical reactions of geological relevance to understand past and future geochemical processes. It discusses fields of geology that rely on geochemistry, including mineralogy, petrology, environmental science, and more. It also outlines the main branches of geochemistry, such as environmental geochemistry, isotope geochemistry, cosmochemistry, biogeochemistry, and organic geochemistry. In closing, it lists some modern sub-disciplines of geochemistry.
This document provides information about an Engineering Geology course at Wollo University in Ethiopia. It includes:
1. Basic details about the course such as the title, code, credit hours, instructors contact information.
2. The course aims to increase students' knowledge of applying geology principles to civil engineering projects.
3. Upon completing the course students will be able to conduct site investigations, prepare engineering geological maps, evaluate suitable sites for structures, identify construction materials, and assess/mitigate geological hazards for engineering structures.
4. The course outline covers topics such as site investigation, hazardous earth processes, subsurface water, dams, tunnels, river engineering, foundations, and geological mapping.
This document provides information about an Engineering Geology course at Wollo University in Ethiopia. It includes:
1. Basic details about the course such as the title, code, credit hours, instructors contact information.
2. The course aims to increase students' knowledge of applying geology principles to civil engineering projects.
3. Upon completing the course students will be able to conduct site investigations, prepare engineering geological maps, evaluate suitable sites for structures, identify construction materials, and assess/mitigate geological hazards for engineering structures.
4. The course outline covers topics such as site investigation, hazardous earth processes, subsurface water, dams, tunnels, river engineering, foundations, and geological mapping.
Geography form 1 notes, kenya syllabusHamadySagiru
Geography is the study of the Earth. There are two main branches: physical geography, which examines landforms and climate, and human geography, which studies human activities and settlements. Geography relates to other subjects like chemistry, physics, agriculture, biology and history.
The solar system consists of the Sun and objects that orbit it, like planets, asteroids, comets and moons. The Earth originated from a cloud of gas and dust about 4.6 billion years ago. It rotates on its axis and revolves around the Sun, causing day/night and seasons. Internally, it has a core, mantle and crust. Geography involves understanding our planet and its relationship to other celestial bodies.
This document provides information about the Engineering Geology and Seismology course CE-312 at UET Peshawar. It includes the instructor's contact information, course objectives to understand geologic factors that influence civil engineering projects and earthquakes, an overview of the engineering geology and seismology topics covered, recommended textbooks, grading criteria which includes exams, assignments, and a group project, and examples of what can happen when geology is ignored in civil projects or how geology can also be interesting to study.
This document provides an overview of an introductory earth science course. It outlines course logistics, objectives, and topics including what geology is, practical applications, and the differences between physical and historical geology. It also briefly describes the origin of the universe, solar system, and Earth as well as plate tectonics theory and how it explains Earth's internal processes and dynamics.
This document discusses engineering geological mapping and provides details on:
1) The purpose of engineering geological maps is to provide basic information for land use planning, engineering works planning/design/construction/maintenance, and environmental planning.
2) Engineering geological maps represent characteristics of rocks/soils, hydrogeological conditions, geomorphological conditions, and active geodynamic phenomena.
3) Classification of rocks and soils on maps is based on properties indicating physical/engineering characteristics, such as mineralogy, texture, structure, and weathering state.
Geology is the study of the Earth, including its composition, structure, physical properties, history and the processes that shape it. It involves studying topics like the origin and age of the Earth, its internal structure, various surface features and how they evolve and change over time. Geology has many branches that study different aspects like physical geology, geomorphology, mineralogy, petrology, economic geology, geochemistry, geophysics, hydrogeology, mining geology, engineering geology and more. Civil engineers and geologists work closely together in areas like planning, designing and constructing major civil engineering projects to ensure their safety, stability and cost-effectiveness by understanding the geological conditions and properties of the construction site and materials.
Geology is the study of the Earth, including its composition, structure, physical properties, history and the processes that shape it. It involves studying topics like the origin and age of the Earth, its internal structure, various surface features and how they evolve and change over time. Geology has many branches that study different aspects like physical geology, geomorphology, mineralogy, petrology, economic geology, geochemistry, geophysics, hydrogeology, mining geology, engineering geology and more. Civil engineers and geologists work closely together in areas like planning, designing and constructing major civil engineering projects to ensure their safety, stability and cost-effectiveness by understanding the geological conditions and properties of the construction site and materials.
The presentation aiding the lecture Structure of Earth and its Composition for the course CE 8392 Engineering Geology handled by Prof. Rathnavel Pon for Akshaya College of Engineering and Technology, Coimbatore
This document provides an overview of smart cities in India and Coimbatore's participation in the Smart Cities Mission. It defines urban development in India, outlines past urban development programs like JNNURM and AMRUT, and describes the goals and components of a smart city. It then details India's Smart Cities Mission, including the selection process for cities and financing mechanisms. The document concludes by outlining Coimbatore's selected projects worth over Rs. 1000 crores to improve infrastructure like roads, housing, energy access and lake development, as well as deploy smart solutions for lighting, surveillance and more.
Sustainable concrete uses less energy and produces fewer carbon emissions than regular concrete. It incorporates waste and recycled materials like fly ash and slag to replace portions of cement. Using these supplementary cementitious materials can increase sustainability by reducing embodied energy and carbon in the concrete. Sustainable strategies also include minimizing water use, using local and recycled aggregates, and designing for durability to lessen environmental impacts over the concrete's lifetime. The presentation outlined various approaches to sustainable concrete and its advantages in promoting greener construction.
This document discusses the importance of teamwork. It is divided into sections about building an effective team, the different types of team members, stages of team development, and qualities that make teams successful. Examples are provided to illustrate key points, such as the importance of shared goals and roles, overcoming challenges together, and pride in team accomplishments. The document emphasizes that teamwork allows a group of people to achieve more together than any individual could alone.
The document provides an introduction to the Rotaractors club of GRD CAS, outlining what a Rotaractors club is, the benefits of joining, and the types of activities and services they are involved in including club services, community services, professional and vocational services, and international services. It also describes the structure of the club including board members, annual planning and budgeting, district and international involvement, and support available from the district Rotaract council and partner Rotary club.
The document contains a series of lines with names of people followed by short descriptors. However, the names and descriptors are random and do not seem to be meaningfully connected to each other. It is difficult to extract any clear overall meaning or to summarize the content in just a few sentences as the document appears to be nonsense text.
The document provides an overview of fundamentals of engineering graphics including drawing instruments, drawing sheets, computer aided drafting and modelling, and drawing processes. It discusses various methods of technical drawing including freehand sketching, manual drafting, and computer aided drafting. Key aspects covered are drawing instruments, types of drawing sheets, software and hardware used for computer aided drafting and modelling, and common drawing processes such as layout, line types, lettering, dimensioning, and scale.
This document provides an overview of astronomical surveying concepts. It discusses the celestial sphere model used to depict celestial objects, important astronomical terms like right ascension and declination, and the motions of celestial bodies like the Sun, stars, and planets. It also covers different coordinate systems used in astronomy like the altitude-azimuth and equatorial systems. Finally, it briefly introduces various time systems used, such as sidereal, mean, and standard times.
This document provides an overview of seismicity and earthquakes. It discusses seismic waves, earthquakes and faults, measures of earthquakes including magnitude and intensity, ground damage from earthquakes, tsunamis caused by earthquakes, and earthquake resistant construction. Specific topics covered include the 2001 Gujarat earthquake in India and the devastating 2004 Indian Ocean tsunami. The document aims to introduce students to key concepts regarding seismicity and earthquakes.
The document discusses tectonic plates and plate tectonics. It defines tectonic plates as large slabs or blocks of the lithosphere that are divided into major and minor plates. The major plates include the African, Antarctic, Eurasian, Indo-Australian, North American, Pacific, and South American plates. The document provides examples of divergent, convergent and transform plate boundaries and their associated geological features. It also summarizes the evidence for continental drift and the past configurations of the continents over geologic time.
Earth is composed of four main layers - crust, mantle, outer core, and inner core. The crust is the outermost layer and is made up of either continental or oceanic crust. Below the crust is the mantle, which is divided into lithosphere, asthenosphere, upper mantle, and lower mantle. The outer core is a liquid layer made of nickel and iron that generates Earth's magnetic field. The inner core is made of solid iron deep within Earth. Overall, Earth's composition is approximately 34.6% iron, 29.5% oxygen, and 15.2% silicon.
The document discusses earthquakes, including their causes, measurement, effects, and zones of risk. Some key points:
- Earthquakes are caused by movement of tectonic plates and faults in rocks. Their magnitude is measured on the Richter Scale and their intensity by the Mercalli scale.
- Seismic waves transmit earthquake energy and are used to locate epicenters. The major earthquake zones are the Pacific Ring of Fire, Alpide Belt, and Mid-Atlantic Ridge.
- India has five seismic zones of risk. Zone V including Kashmir and Northeast India faces the highest risk, while Zone I including parts of central India faces the lowest risk.
Faults are cracks or fractures in the Earth's crust caused by stresses that induce brittle deformation of rocks. There are three main types of faults: dip-slip faults which involve vertical motion, strike-slip faults with horizontal motion, and oblique-slip faults with an oblique motion. Normal faults occur during extension while reverse faults are caused by compression. The elastic rebound theory explains that tectonic plates accumulate energy during periods of stress until a sudden slip occurs along the fault, releasing energy in the form of seismic waves and causing earthquakes.
The first class where the students and teacher got to know about each other. It really broke a lot of ice and set the tone for a cordial classroom climate
This document outlines an introductory geology course for civil engineering students. It introduces geology and explains why it is important for students to learn. The document then outlines the course syllabus which covers 5 units on topics like mineralogy, petrology, structural geology, and geological investigations for civil engineering projects. It also provides the lesson plan, names course captains, and describes the evaluation scheme which includes internal and external assessments.
Beyond Degrees - Empowering the Workforce in the Context of Skills-First.pptxEduSkills OECD
Iván Bornacelly, Policy Analyst at the OECD Centre for Skills, OECD, presents at the webinar 'Tackling job market gaps with a skills-first approach' on 12 June 2024
How to Make a Field Mandatory in Odoo 17Celine George
In Odoo, making a field required can be done through both Python code and XML views. When you set the required attribute to True in Python code, it makes the field required across all views where it's used. Conversely, when you set the required attribute in XML views, it makes the field required only in the context of that particular view.
Walmart Business+ and Spark Good for Nonprofits.pdfTechSoup
"Learn about all the ways Walmart supports nonprofit organizations.
You will hear from Liz Willett, the Head of Nonprofits, and hear about what Walmart is doing to help nonprofits, including Walmart Business and Spark Good. Walmart Business+ is a new offer for nonprofits that offers discounts and also streamlines nonprofits order and expense tracking, saving time and money.
The webinar may also give some examples on how nonprofits can best leverage Walmart Business+.
The event will cover the following::
Walmart Business + (https://business.walmart.com/plus) is a new shopping experience for nonprofits, schools, and local business customers that connects an exclusive online shopping experience to stores. Benefits include free delivery and shipping, a 'Spend Analytics” feature, special discounts, deals and tax-exempt shopping.
Special TechSoup offer for a free 180 days membership, and up to $150 in discounts on eligible orders.
Spark Good (walmart.com/sparkgood) is a charitable platform that enables nonprofits to receive donations directly from customers and associates.
Answers about how you can do more with Walmart!"
Gender and Mental Health - Counselling and Family Therapy Applications and In...PsychoTech Services
A proprietary approach developed by bringing together the best of learning theories from Psychology, design principles from the world of visualization, and pedagogical methods from over a decade of training experience, that enables you to: Learn better, faster!
This document provides an overview of wound healing, its functions, stages, mechanisms, factors affecting it, and complications.
A wound is a break in the integrity of the skin or tissues, which may be associated with disruption of the structure and function.
Healing is the body’s response to injury in an attempt to restore normal structure and functions.
Healing can occur in two ways: Regeneration and Repair
There are 4 phases of wound healing: hemostasis, inflammation, proliferation, and remodeling. This document also describes the mechanism of wound healing. Factors that affect healing include infection, uncontrolled diabetes, poor nutrition, age, anemia, the presence of foreign bodies, etc.
Complications of wound healing like infection, hyperpigmentation of scar, contractures, and keloid formation.
2. WARM UP
A WORD FORYOUR LETTER
A pple
K nowledge
S kill
H appy
A ward
Y outh
A lways
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3. Objective
• To understand the meaning of geology
• To comprehend the different branches of geology
• To take cognizance of applications of geology in civil engineering
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4. GEOLOGY
• Geography vs Geology
• Geology
Geo (earth) + logy (scientific study)
Geology = scientific study of the earth
• Geology is defined as a scientific study of the earth as a planet which includes
the study of origin, composition, structure, physical features, materials,
interactions and physico – chemical processes operating within the earth.
(OC SP MI PC)
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5. BRANCHES OF GEOLOGY
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S. No. Branch Significance
1 Physical Geology Study of Structure of Earth and its various surface features
2 Historical Geology Study of origin of earth and changes in geology from past to present
3 Economic Geology Study of materials of earth that can be used for economic benefit of man
4 Petrology Study of rocks
5 Mineralogy Study of minerals
6 Geomorphology Part of Physical Geology - Study of land surface features
7 Geohydrology Part of Physical Geology - Study of water surface features
8 Meteorology Part of Physical Geology - Study of atmospheric features
9 Geochemistry Study of Chemical Composition of Earth, interaction of components and application of chemistry
10 Geophysics Study of application of physics to solve geology related issues
11 Engineering Geology Study of interaction between geology and engineering (mostly civil engineering)