Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
Mineral exploration is the process of finding ore deposits to mine through organized prospecting. The most crucial part is selecting suitable areas based on geology and terrain to make exploration easy, cheap, and quick. Common exploration methods include geophysics using physical measurements, remote sensing using aerial technologies like satellites, and geochemical methods to identify anomalies within mineral deposit areas. The ultimate goal of exploration is the extraction and profitable sale of identified minerals, though there are risks from changing prices and weather conditions that could delay revenue generation.
This document discusses the process of prospecting for and proving a mineral deposit. It begins by defining prospecting and mining. Prospecting aims to initially find deposits, while proving works to establish the deposit's parameters, quality, and reserves. The process involves three stages - prospecting, exploration, and proving. Exploration methods discussed include remote sensing, mapping, geophysics, geochemistry, and drilling. Proving then further defines the deposit through deeper drilling, sampling, determining reserves and establishing a mining plan. Developing accurate ore deposit models is also an important part of effectively exploring for and proving deposits.
The document provides an overview of upstream oil and gas exploration and production processes in India. It discusses key steps in the exploration cycle including surveys, drilling, reservoir analysis, and production. It covers geological concepts like source rocks, migration, traps, and basin formation. Key methods are outlined, such as seismic acquisition and different trap types. The importance of inputs from geology, geophysics, geochemistry is highlighted. Drilling and production activities are also summarized. India has 26 sedimentary basins but only 7 have yielded commercial oil and gas discoveries to date.
This report provides the details of the widely adopted methods of mining, both surface and underground and to have an overview of all the operations that are made to explore the economic mineral resources.
The document describes the four main stages of mineral exploration:
1) Reconnaissance surveys involve wide-spaced geological mapping and surveys to identify areas for further study.
2) Preliminary exploration uses closer-spaced surveys and sampling to select target areas.
3) General exploration involves detailed mapping, sampling, and shallow drilling of small areas.
4) Detailed exploration uses closely-spaced drilling to determine the precise shape, size, and grade of ore bodies.
The document outlines the 5 main stages of mining: prospecting, exploration, development, exploitation, and reclamation. Prospecting involves initial literature reviews and mapping to identify potential mining sites. Exploration uses sampling and drilling techniques to further evaluate sites. Development acquires mining rights and constructs infrastructure like roads and plants. Exploitation is the actual recovery of minerals using surface or underground mining methods. Reclamation involves restoring land after mining is complete.
Methods and stages of Mineral Exploration: Adaptive Resource Management PlanNgatcha Bryan
Exploration can be divided into a number of interlinked and sequential stages which involve increasing
expenditure and decreasing risk. Early stages of exploration are planning and prospecting. The planning
stage covers the selection of commodity, type of deposit, exploration methods, and the seĴing up of an
exploration entity. Prospecting covers activities leading to the selection of an area for detailed ground
work; this is the point at which land is acquired. The subsequent stages involve targeted prospecting and
exploration in order to quantify and qualify the mineral resources. Pre-feasibility study is then
performed for evaluating the commercial viability of the deposit (Adapted from Moon et al., 2006).
1. Geological investigations involve surface and subsurface exploration methods to determine the geological structure, lithology, groundwater conditions, and seismicity of an area before constructing major civil engineering projects like dams.
2. Subsurface exploration methods include direct techniques like drilling and indirect geophysical methods. Important geophysical methods are gravity, magnetic, electrical, seismic, and radiometric, with electrical methods being the most versatile.
3. Seismic refraction and reflection techniques use geophones to record seismic wave arrival times and construct time-distance graphs to determine layer depths and velocities below a site. Configuration of geophones includes fan, profile, and circular shooting patterns.
Mineral exploration is the process of finding ore deposits to mine through organized prospecting. The most crucial part is selecting suitable areas based on geology and terrain to make exploration easy, cheap, and quick. Common exploration methods include geophysics using physical measurements, remote sensing using aerial technologies like satellites, and geochemical methods to identify anomalies within mineral deposit areas. The ultimate goal of exploration is the extraction and profitable sale of identified minerals, though there are risks from changing prices and weather conditions that could delay revenue generation.
This document discusses the process of prospecting for and proving a mineral deposit. It begins by defining prospecting and mining. Prospecting aims to initially find deposits, while proving works to establish the deposit's parameters, quality, and reserves. The process involves three stages - prospecting, exploration, and proving. Exploration methods discussed include remote sensing, mapping, geophysics, geochemistry, and drilling. Proving then further defines the deposit through deeper drilling, sampling, determining reserves and establishing a mining plan. Developing accurate ore deposit models is also an important part of effectively exploring for and proving deposits.
The document provides an overview of upstream oil and gas exploration and production processes in India. It discusses key steps in the exploration cycle including surveys, drilling, reservoir analysis, and production. It covers geological concepts like source rocks, migration, traps, and basin formation. Key methods are outlined, such as seismic acquisition and different trap types. The importance of inputs from geology, geophysics, geochemistry is highlighted. Drilling and production activities are also summarized. India has 26 sedimentary basins but only 7 have yielded commercial oil and gas discoveries to date.
This report provides the details of the widely adopted methods of mining, both surface and underground and to have an overview of all the operations that are made to explore the economic mineral resources.
The document describes the four main stages of mineral exploration:
1) Reconnaissance surveys involve wide-spaced geological mapping and surveys to identify areas for further study.
2) Preliminary exploration uses closer-spaced surveys and sampling to select target areas.
3) General exploration involves detailed mapping, sampling, and shallow drilling of small areas.
4) Detailed exploration uses closely-spaced drilling to determine the precise shape, size, and grade of ore bodies.
The document outlines the 5 main stages of mining: prospecting, exploration, development, exploitation, and reclamation. Prospecting involves initial literature reviews and mapping to identify potential mining sites. Exploration uses sampling and drilling techniques to further evaluate sites. Development acquires mining rights and constructs infrastructure like roads and plants. Exploitation is the actual recovery of minerals using surface or underground mining methods. Reclamation involves restoring land after mining is complete.
Methods and stages of Mineral Exploration: Adaptive Resource Management PlanNgatcha Bryan
Exploration can be divided into a number of interlinked and sequential stages which involve increasing
expenditure and decreasing risk. Early stages of exploration are planning and prospecting. The planning
stage covers the selection of commodity, type of deposit, exploration methods, and the seĴing up of an
exploration entity. Prospecting covers activities leading to the selection of an area for detailed ground
work; this is the point at which land is acquired. The subsequent stages involve targeted prospecting and
exploration in order to quantify and qualify the mineral resources. Pre-feasibility study is then
performed for evaluating the commercial viability of the deposit (Adapted from Moon et al., 2006).
1. Geological investigations involve surface and subsurface exploration methods to determine the geological structure, lithology, groundwater conditions, and seismicity of an area before constructing major civil engineering projects like dams.
2. Subsurface exploration methods include direct techniques like drilling and indirect geophysical methods. Important geophysical methods are gravity, magnetic, electrical, seismic, and radiometric, with electrical methods being the most versatile.
3. Seismic refraction and reflection techniques use geophones to record seismic wave arrival times and construct time-distance graphs to determine layer depths and velocities below a site. Configuration of geophones includes fan, profile, and circular shooting patterns.
Mining engineering involves the extraction of minerals from the earth. The major stages of mining activity are prospecting, exploration, development, exploitation, and reclamation. Prospecting involves looking for mineral deposits through direct examination of outcrops and geology or indirect methods like geophysics, aerial photography, and satellite mapping. Exploration defines the extent and value of the ore body through drilling, laboratory tests, surveying, and producing a feasibility report. Development opens up the ore deposit for production through constructing access roads and facilities, excavating the deposit, and locating surface plants if needed for ore processing.
Geophysical exploration uses physical methods to measure subsurface properties without sampling. It includes passive methods that measure natural fields like gravity and magnetism, and active methods using artificial sources like seismic surveys. Seismic surveys involve generating seismic waves, including faster P-waves and slower S-waves, from sources like explosions. These waves travel through and reflect off subsurface interfaces to reveal information about geological structures and detect hydrocarbon deposits like oil and gas. Geophysical surveys are a low-cost exploration technique used to find new reserves and guide further exploration activities.
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.
Geophysical techniques work through applying one of several types of force to the ground, to measure the
resulting energy with use of geophysical equipment and infer the geology from this. Geophysics is generally
much quicker than the aforementioned methods, however, requires more data processing (oìce-based work)
to develop the geological picture. A great advantage of these methods is that certain instruments can be
attached to small aircraft for covering large areas during regional airborne surveys. This provides sparser
geological information, but can highlight potential metal anomalies on a county-country scale, which can be
followed up by more detailed, ground-based geophysical surveys. However, as the material is being tested
indirectly, there is no 100% guarantee of its conclusions; in addition to being susceptible to contamination by
many man-made metallic structures e.g. power-lines. Therefore, should geophysical surveys prove suìciently
interesting, drilling will be required afterwards to conêrm the accuracy of the results.
Petroleum geology is the application of geology to explore for and produce oil and gas. It relies on understanding rock structures that can trap hydrocarbons underground. Key techniques used include seismic surveys, which use shock waves to map underground rock layers and structures that may indicate oil and gas traps. Important milestones include the development of the anticlinal theory of trapping in 1883, the invention of the seismograph in 1914, and the introduction of 3D seismic in the 1980s to improve imaging of underground structures.
Geology & geophysics in oil explorationFelipe Andrés
This document provides an overview of geology and geophysics techniques used in oil exploration. It discusses sedimentary rocks, their classification, textures, and structures. Common sedimentary rocks include sandstones, formed from quartz and feldspar grains, and limestones, formed from calcium carbonate. Geophysical methods like seismic surveys are used to image underground structures that may trap oil and gas. Well logging and mud logging techniques provide data from boreholes. Overall the document serves as an introductory guide to applying geological and geophysical principles in the oil and gas industry.
Okay, here are the steps to solve this problem:
(a) (i) Using the equation: Depth = 2.5 km + 0.3(Age)1/2
Set Depth = 4700 m
4700 = 2.5 + 0.3(Age)1/2
4700 - 2.5 = 0.3(Age)1/2
4697.5 = 0.3(Age)1/2
(4697.5/0.3)2 = Age
Age = 80 Myr
(ii) Spreading rate = Distance from ridge / Age
= 1600 km / 80 Myr
= 20 km/Myr
(b) This is a half
This presentation is all about Petroleum Engineering, Prospecting oil and gas, drilling and various drilling methods, logs and its types, different Drive Mechanisms, etc......
Geophysical Methods of Hydrocarbon ExplorationM.T.H Group
This document provides an overview of geophysical methods used for hydrocarbon exploration, specifically focusing on seismic surveying. It describes how seismic surveying works, including generating sound waves at shot points and measuring the travel time of reflections to determine subsurface rock densities and structures. Gravity and magnetic methods are also discussed briefly as tools used in the pre-drilling phase to locate salt domes and reefs, while seismic surveying is described as the most widely used method and applicable to both exploration and development phases.
Petroleum exploration by s. k. de gtc -dec 2011GTClub
Petroleum exploration involves mapping subsurface rock formations to locate potential sources of oil and natural gas. Geologists and geophysicists use techniques like seismic surveys and subsurface mapping of sedimentary basins to identify areas for test drilling. Oil and gas are typically found trapped within sedimentary source rocks under cap rocks at sufficient depths of burial and temperatures/pressures. In India, major discoveries have been made in areas like Assam, Gujarat, and offshore the east coast. While ONGC and Oil India initially led exploration, the government now licenses both domestic and international companies to explore new areas.
This document provides an overview of geotechnical site investigation. It discusses the history and development of site investigations, different approaches to site investigations from desk studies to limited investigations with monitoring, and the typical sequence of a geotechnical site investigation. It also describes various subsurface exploration techniques including geophysics, boring, drilling, probing, and in situ testing methods.
This document discusses reservoir geophysics and geology. It begins with an introduction to geophysics, noting that most rocks are opaque so geophysics uses physics to obtain "geophysical images" of the subsurface based on properties like density, magnetism, conductivity, and velocity. It discusses using natural fields like gravity and magnetics to measure subsurface variations at a regional scale. Later sections discuss seismic reflection methods, potential field applications in mapping geology, and benefits of 3D seismic over 2D in providing better geological models. The document provides an overview of key concepts in reservoir geophysics and geology.
This document discusses various geophysical investigation methods used to study subsurface geology. It describes electrical resistivity, seismic refraction, gravity and magnetic methods. Electrical resistivity involves measuring resistivity variations to interpret subsurface rock types and structures. Seismic refraction uses the refraction of seismic waves to determine depth to subsurface layers. Gravity and magnetic methods detect density and susceptibility anomalies respectively to locate subsurface bodies. Geophysical methods provide quick, economical and multi-purpose subsurface exploration without drilling.
This document provides an introduction to geology, outlining key concepts and topics covered in the field. It defines geology as the study of Earth and discusses its division into physical geology and historical geology. Major sections address geological concepts, the origin and structure of Earth, and its composition. Geology is presented as important for understanding natural resources, hazards, and problems facing modern society.
Remote sensing techniques can be used to identify mineral deposits. Landsat satellites have collected imagery since the 1970s that is useful for mineral exploration. Spectral bands can recognize hydrothermally altered rocks associated with ore deposits due to their distinct reflectance properties compared to unaltered rocks. At the Goldfield, Nevada mining district, Landsat imagery has been used to map hydrothermal alteration minerals like alunite and clays using ratio images of spectral bands 5 and 7, and 3 and 1, that highlight altered rock areas correlating with known deposits. Classification algorithms can further analyze imagery to automatically categorize altered and unaltered rock types to aid exploration.
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 chapter discusses engineering geological site investigations. The objectives of a site investigation are to understand subsurface conditions like soil/rock profiles, groundwater levels, and physical properties in order to determine appropriate foundation types and provide design recommendations. A site investigation involves planning, execution of field and lab testing, and report writing. Fieldwork includes collecting disturbed and undisturbed samples, in-situ tests, and borehole logging. Proper data interpretation is also important and involves understanding measurement scales, analyzing data, and drawing conclusions. The overall goal is to safely and economically design and construct engineering projects based on site-specific conditions.
This document discusses engineering geology, including its history, applications, and scope. It provides information on 5 group members and 3 topics related to engineering geology. The history section outlines important publications and programs from the 1880s to the 1920s. Applications of engineering geology are described in civil engineering, mining, petroleum engineering, and other disciplines. The scope of engineering geology includes residential/commercial developments, government/military installations, mining works, public works projects, flood control, understanding earth's structure and evolution, and assisting with civil engineering tasks like dam and foundation design.
Environmental impact assessment of mining projects 17.03.09Mohit Singh
1) The document discusses environmental impact assessment procedures for mining projects in India, which require environmental clearance from the Ministry of Environment and Forests.
2) It outlines key environmental policies and legislation in India related to mining and the environment, and notes that mining technology choices must consider environmental and social impacts, not just economic factors.
3) The document describes the scoping process for identifying potential environmental impacts of mining projects and lists some typical impacts such as changes to land use and landscape, and socioeconomic effects.
The document discusses the environmental impact assessment (EIA) process. It begins by explaining that EIAs give project proponents the opportunity to consider how their actions may affect the environment. The document then outlines the key stages of the EIA process in India, including screening projects, scoping impacts, conducting baseline studies, impact prediction, developing mitigation measures, public hearings, environmental management planning, decision making, and post-clearance monitoring. Finally, it notes that EIAs are mandatory for certain high-impact projects under India's Environmental Protection Act.
Mining engineering involves the extraction of minerals from the earth. The major stages of mining activity are prospecting, exploration, development, exploitation, and reclamation. Prospecting involves looking for mineral deposits through direct examination of outcrops and geology or indirect methods like geophysics, aerial photography, and satellite mapping. Exploration defines the extent and value of the ore body through drilling, laboratory tests, surveying, and producing a feasibility report. Development opens up the ore deposit for production through constructing access roads and facilities, excavating the deposit, and locating surface plants if needed for ore processing.
Geophysical exploration uses physical methods to measure subsurface properties without sampling. It includes passive methods that measure natural fields like gravity and magnetism, and active methods using artificial sources like seismic surveys. Seismic surveys involve generating seismic waves, including faster P-waves and slower S-waves, from sources like explosions. These waves travel through and reflect off subsurface interfaces to reveal information about geological structures and detect hydrocarbon deposits like oil and gas. Geophysical surveys are a low-cost exploration technique used to find new reserves and guide further exploration activities.
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.
Geophysical techniques work through applying one of several types of force to the ground, to measure the
resulting energy with use of geophysical equipment and infer the geology from this. Geophysics is generally
much quicker than the aforementioned methods, however, requires more data processing (oìce-based work)
to develop the geological picture. A great advantage of these methods is that certain instruments can be
attached to small aircraft for covering large areas during regional airborne surveys. This provides sparser
geological information, but can highlight potential metal anomalies on a county-country scale, which can be
followed up by more detailed, ground-based geophysical surveys. However, as the material is being tested
indirectly, there is no 100% guarantee of its conclusions; in addition to being susceptible to contamination by
many man-made metallic structures e.g. power-lines. Therefore, should geophysical surveys prove suìciently
interesting, drilling will be required afterwards to conêrm the accuracy of the results.
Petroleum geology is the application of geology to explore for and produce oil and gas. It relies on understanding rock structures that can trap hydrocarbons underground. Key techniques used include seismic surveys, which use shock waves to map underground rock layers and structures that may indicate oil and gas traps. Important milestones include the development of the anticlinal theory of trapping in 1883, the invention of the seismograph in 1914, and the introduction of 3D seismic in the 1980s to improve imaging of underground structures.
Geology & geophysics in oil explorationFelipe Andrés
This document provides an overview of geology and geophysics techniques used in oil exploration. It discusses sedimentary rocks, their classification, textures, and structures. Common sedimentary rocks include sandstones, formed from quartz and feldspar grains, and limestones, formed from calcium carbonate. Geophysical methods like seismic surveys are used to image underground structures that may trap oil and gas. Well logging and mud logging techniques provide data from boreholes. Overall the document serves as an introductory guide to applying geological and geophysical principles in the oil and gas industry.
Okay, here are the steps to solve this problem:
(a) (i) Using the equation: Depth = 2.5 km + 0.3(Age)1/2
Set Depth = 4700 m
4700 = 2.5 + 0.3(Age)1/2
4700 - 2.5 = 0.3(Age)1/2
4697.5 = 0.3(Age)1/2
(4697.5/0.3)2 = Age
Age = 80 Myr
(ii) Spreading rate = Distance from ridge / Age
= 1600 km / 80 Myr
= 20 km/Myr
(b) This is a half
This presentation is all about Petroleum Engineering, Prospecting oil and gas, drilling and various drilling methods, logs and its types, different Drive Mechanisms, etc......
Geophysical Methods of Hydrocarbon ExplorationM.T.H Group
This document provides an overview of geophysical methods used for hydrocarbon exploration, specifically focusing on seismic surveying. It describes how seismic surveying works, including generating sound waves at shot points and measuring the travel time of reflections to determine subsurface rock densities and structures. Gravity and magnetic methods are also discussed briefly as tools used in the pre-drilling phase to locate salt domes and reefs, while seismic surveying is described as the most widely used method and applicable to both exploration and development phases.
Petroleum exploration by s. k. de gtc -dec 2011GTClub
Petroleum exploration involves mapping subsurface rock formations to locate potential sources of oil and natural gas. Geologists and geophysicists use techniques like seismic surveys and subsurface mapping of sedimentary basins to identify areas for test drilling. Oil and gas are typically found trapped within sedimentary source rocks under cap rocks at sufficient depths of burial and temperatures/pressures. In India, major discoveries have been made in areas like Assam, Gujarat, and offshore the east coast. While ONGC and Oil India initially led exploration, the government now licenses both domestic and international companies to explore new areas.
This document provides an overview of geotechnical site investigation. It discusses the history and development of site investigations, different approaches to site investigations from desk studies to limited investigations with monitoring, and the typical sequence of a geotechnical site investigation. It also describes various subsurface exploration techniques including geophysics, boring, drilling, probing, and in situ testing methods.
This document discusses reservoir geophysics and geology. It begins with an introduction to geophysics, noting that most rocks are opaque so geophysics uses physics to obtain "geophysical images" of the subsurface based on properties like density, magnetism, conductivity, and velocity. It discusses using natural fields like gravity and magnetics to measure subsurface variations at a regional scale. Later sections discuss seismic reflection methods, potential field applications in mapping geology, and benefits of 3D seismic over 2D in providing better geological models. The document provides an overview of key concepts in reservoir geophysics and geology.
This document discusses various geophysical investigation methods used to study subsurface geology. It describes electrical resistivity, seismic refraction, gravity and magnetic methods. Electrical resistivity involves measuring resistivity variations to interpret subsurface rock types and structures. Seismic refraction uses the refraction of seismic waves to determine depth to subsurface layers. Gravity and magnetic methods detect density and susceptibility anomalies respectively to locate subsurface bodies. Geophysical methods provide quick, economical and multi-purpose subsurface exploration without drilling.
This document provides an introduction to geology, outlining key concepts and topics covered in the field. It defines geology as the study of Earth and discusses its division into physical geology and historical geology. Major sections address geological concepts, the origin and structure of Earth, and its composition. Geology is presented as important for understanding natural resources, hazards, and problems facing modern society.
Remote sensing techniques can be used to identify mineral deposits. Landsat satellites have collected imagery since the 1970s that is useful for mineral exploration. Spectral bands can recognize hydrothermally altered rocks associated with ore deposits due to their distinct reflectance properties compared to unaltered rocks. At the Goldfield, Nevada mining district, Landsat imagery has been used to map hydrothermal alteration minerals like alunite and clays using ratio images of spectral bands 5 and 7, and 3 and 1, that highlight altered rock areas correlating with known deposits. Classification algorithms can further analyze imagery to automatically categorize altered and unaltered rock types to aid exploration.
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 chapter discusses engineering geological site investigations. The objectives of a site investigation are to understand subsurface conditions like soil/rock profiles, groundwater levels, and physical properties in order to determine appropriate foundation types and provide design recommendations. A site investigation involves planning, execution of field and lab testing, and report writing. Fieldwork includes collecting disturbed and undisturbed samples, in-situ tests, and borehole logging. Proper data interpretation is also important and involves understanding measurement scales, analyzing data, and drawing conclusions. The overall goal is to safely and economically design and construct engineering projects based on site-specific conditions.
This document discusses engineering geology, including its history, applications, and scope. It provides information on 5 group members and 3 topics related to engineering geology. The history section outlines important publications and programs from the 1880s to the 1920s. Applications of engineering geology are described in civil engineering, mining, petroleum engineering, and other disciplines. The scope of engineering geology includes residential/commercial developments, government/military installations, mining works, public works projects, flood control, understanding earth's structure and evolution, and assisting with civil engineering tasks like dam and foundation design.
Environmental impact assessment of mining projects 17.03.09Mohit Singh
1) The document discusses environmental impact assessment procedures for mining projects in India, which require environmental clearance from the Ministry of Environment and Forests.
2) It outlines key environmental policies and legislation in India related to mining and the environment, and notes that mining technology choices must consider environmental and social impacts, not just economic factors.
3) The document describes the scoping process for identifying potential environmental impacts of mining projects and lists some typical impacts such as changes to land use and landscape, and socioeconomic effects.
The document discusses the environmental impact assessment (EIA) process. It begins by explaining that EIAs give project proponents the opportunity to consider how their actions may affect the environment. The document then outlines the key stages of the EIA process in India, including screening projects, scoping impacts, conducting baseline studies, impact prediction, developing mitigation measures, public hearings, environmental management planning, decision making, and post-clearance monitoring. Finally, it notes that EIAs are mandatory for certain high-impact projects under India's Environmental Protection Act.
What sustainability means in mining today or what mining means to sustainabil...Mining On Top
The document discusses the role and contributions of mining to sustainability and the global economy. It makes the following key points:
1) Mining contributes around 10% directly and up to 45% indirectly to the global economy through supporting industries and downstream uses of minerals.
2) Mining disturbs less than 1% of the Earth's surface but provides over 45% of global economic activity and is essential for clean water, clean air, and other environmental needs.
3) For mining to be sustainable, it must contribute to human well-being, ecosystem well-being, and economic viability at the local, national and international levels through its operations and post-closure plans.
The document provides an overview of environmental and social concerns related to metals, minerals, and mining. It discusses acid mine drainage in 3 paragraphs, summarizing that it is caused by oxidation of sulphide minerals when in contact with water and oxygen, produces acids and dissolved metals, and has wide-ranging negative environmental impacts. It also briefly summarizes control and remediation of uranium waste and a mine rehabilitation case study of the Sherwood Uranium Mine.
The mining industry in India contributes approximately 10% to the industrial sector GDP and provides jobs for 700,000 people. While an important economic activity, mining also has significant environmental impacts including depletion of water resources, land degradation, air and water pollution, and disruption of wildlife habitats. The effects of mining include erosion, contamination of surface and groundwater, and damage to aquatic ecosystems from sedimentation.
The document discusses environmental issues related to coal mining. It begins by defining the environment and some global environmental problems. It then outlines the various phases of mining activities from pre-operational to operational to post-operational. Specific impacts from coal mining are mentioned such as air and water quality deterioration and changes to hydrology and land use. The regulatory framework for environmental management in India is described including relevant organizations and regulations. Areas that require attention are also highlighted such as the polluting effects of coal mining, human displacement, and impacts to air, water, wildlife and communities.
The document provides an overview of environmental impact assessment (EIA) regulations in India. It discusses the history and evolution of EIA, highlighting key milestones such as its formal adoption in India in the 1990s. It outlines the EIA notification process in India, listing various projects that require environmental clearance. The notification establishes two categories (A and B) for projects based on their potential environmental impacts. Category A projects require clearance from the central government, while Category B requires clearance from state-level authorities. The document discusses amendments made to the EIA notification in 2006 and 2009.
Mining involves extracting ore from the earth through surface, underground, or solution mining methods. Ore is then processed through beneficiation techniques like crushing, grinding, separation based on magnetic or physical properties to extract the desired mineral. The concentrated ore is then smelted to separate the metal from waste rock. Environmental concerns from mining include pollution from waste rock and tailings disposal, acid mine drainage, subsidence from underground mining, air pollution from smelting operations, and contamination of water and land from chemicals used.
1. Mining involves extracting valuable minerals and materials from the earth. Common methods are surface mining, which removes overburden, and underground mining using shafts or tunnels.
2. Surface mining techniques include placer mining for deposits close to the surface, strip mining which removes overburden, and mountaintop removal which levels entire mountains. Underground mining uses drifts, slopes, or shafts to access deep materials.
3. Mining has environmental impacts like deforestation, pollution from tailings, subsidence from underground mining, and dispersal of heavy metals and asbestos. It can also damage communities through land appropriation, health impacts, and social disruption.
The document discusses social impact assessment (SIA) and its importance in development projects. It provides an overview of SIA, including its origins in the US and incorporation by the World Bank. In India, SIA gained importance after the Bhopal disaster to avoid social risks. The document outlines the steps involved in conducting an SIA, from preliminary assessments to documentation. It discusses key aspects like identifying affected communities, assessing land values, entitlement frameworks, and public consultations. Relevant laws and policies for resettlement and rehabilitation are also summarized.
This document provides an outline for a lecture presentation on open pit mining methods and planning. It discusses key parameters such as bench height and geometry, cutoff grade calculation, and factors affecting open pit stability. The presentation covers the basic concept of open pit mining, how overburden is removed, and machinery used such as trucks, shovels, and drills. Diagrams illustrate typical bench terminology and pit slope angles. The importance of optimizing the pit design is addressed through considering elements like production scheduling, waste disposal, and ultimate pit limits.
This document discusses various mining methods including surface mining techniques like alluvial mining and open-cast mining as well as underground mining techniques. It describes alluvial mining methods like using pans, rockers, and sluicing. For open-cast mining it discusses loading by hand or machine and different open-cast mining methods. Underground mining techniques discussed include room and pillar mining, open stoping methods using timber supports or waste filling, shrinkage stoping, and caving methods like top slicing and block caving.
Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
This document outlines a workshop about geology and mineral resources for students and educators. It includes sections on the Earth's structure, minerals and their properties, rock classification, the mining process from exploration to closure, and earth processes like earthquakes. Specific topics covered are Manitoba's mineral resources, how minerals are used in daily life, and hands-on activities demonstrating soil capillary action, sand folds and faults, and earthquake modeling. The workshop aims to increase knowledge about Canada's geology and how mining provides resources for modern life.
Earth Science_W6-Ores_Mining Process (students' copy).pdfMydelCampehios
Ore minerals are located through prospecting potential ore bodies based on the geologic processes that could have concentrated minerals in a localized area, such as hydrothermal fluid circulation, metamorphic processes, magmatic processes, and chemical sedimentary processes. Once located, ores are mined through surface or underground mining methods, processed by crushing, grinding, and separating techniques like smelting or leaching to extract the desired metal, and the waste rock and tailings are disposed of appropriately. The overall process of developing a mine involves making land available, prospecting and exploration, environmental assessment and approval, designing and constructing the mine, operation which includes extraction and processing, and finally reclamation of the mine site.
This document discusses surface mining techniques. It begins by explaining open-pit mining, which involves forming a large hole or pit by extracting minerals. Strip mining extracts long, narrow strips of minerals using excavation equipment. The most common types of surface mining are open-pit mining, strip mining, and quarrying. Open-pit mines are divided into horizontal benches of around 12-15 meters thick for efficient excavation of the deposit.
The document provides an overview of an environmental management course. It discusses nine course topics related to human interactions with the environment, including rocks and minerals exploitation, energy/agriculture/water management, oceans/fisheries, natural hazards, atmosphere, population, and ecosystems. Assessment methods are not described in detail. The course aims to provide local and global perspectives on sustainability, human needs/values, and the future of the environment.
Large scale mining projects follow a defined process from exploration to mining. Exploration begins regionally to generate targets, then progresses to more localized surveys, mapping, sampling and geophysics to define drill targets. Drilling aims to discover mineral deposits, with successful targets undergoing resource definition and feasibility studies. If studies demonstrate viability, mining and production can begin for decades, providing revenue and jobs. Large scale mines are regulated and planned to operate sustainably, in contrast to artisanal mining which can lack oversight and rehabilitation.
Ore minerals are found through mineral exploration which involves project design, field exploration, and feasibility studies. They are mined through surface mining techniques like open-pit and strip mining or underground mining. Processing involves crushing, grinding, concentration, and recovery methods to extract the valuable minerals from waste rock. Common methods include magnetic separation, flotation, and heap leaching.
Ore Minerals (How it is found, mined, and processed for human use)Simple ABbieC
Department of Education | Senior High School
Topic: Ore Minerals (How it is found, mined, and processed for human use)
Learning Competency:
Earth Science (for STEM): Describe how ore minerals are found, mined, and processed for human use. (S11ES-Ic-d-8)
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The document provides information about fossil fuels, including coal, oil, and natural gas. It discusses how each fossil fuel is formed over millions of years from the remains of ancient plants and animals. Coal forms in swampy environments as plants are buried and subjected to heat and pressure over time. Oil forms from the remains of plankton and other tiny organisms buried in sedimentary rock layers. Both coal and oil require heat, pressure, and the absence of oxygen to form from biological material into usable fossil fuels over millions of years. The document also notes some of the key uses of coal and oil as fuel sources.
Here are 5 sentences outlining plans to conserve and protect mineral resources for future generations:
1) Practice sustainable mining techniques like selective mining and reclamation to minimize environmental impact.
2) Educate communities about responsible sourcing and recycling to reduce demand for new mining.
3) Lobby for stronger regulations on mining to enforce environmental protections, remediation, and closure plans.
4) Invest in research on alternatives to mineral-intensive technologies to reduce long-term dependency on non-renewable resources.
5) Advocate for transitioning to a circular economy where minerals are reused and recycled instead of disposed after single use.
This document provides an overview of the Mineral Exploration and Evaluation course. It discusses the following key topics in mineral exploration:
- Introduction to mineral resources and the historical background of mineral exploration.
- Types, phases and sequences of mineral exploration planning and management.
- Sampling and analytical techniques including sample preparation and laboratory methods.
- Exploration methods such as geological mapping, geochemical and geophysical prospecting.
- Presentation and interpretation of exploration data and resource evaluation including feasibility studies.
It also provides details on various stages of mineral exploration including planning, reconnaissance, follow-up exploration, feasibility studies, construction and mine development, extraction, and mine closure.
The document discusses community environmental monitoring during different stages of the mining life cycle. It provides details on the potential environmental impacts of exploration, construction, operation, and closure/rehabilitation. Specifically, it describes how early exploration involves low-impact activities like mapping and sampling but can progress to trenching and drilling, which can cause landscape scarring and erosion. Drilling involves toxic mud and cuttings that risk contaminating rivers if not properly contained. Large-scale open pit mining transforms landscapes and disrupts drainage, while waste rock dumps and tailings dams can generate acid mine drainage that pollutes surface and groundwater for decades. The document stresses the importance of community monitoring from the earliest exploration stages to detect and address environmental issues before severe
This document discusses various surface mining methods. It begins by outlining the key factors that must be considered when evaluating a potential surface mine, including geography, legal issues, historical/social factors, geology, mining/ore conditions, processing requirements, and economic analysis. It then describes different mechanical excavation methods like open-pit mining, terrace mining, strip mining, and contour strip mining. It also discusses aqueous methods for mining placer deposits, including panning, sluicing, dredging, hydraulic mining, heap leaching, and in-situ leaching. The document provides details on each mining method and categorizes them for easy reference. It emphasizes that surface mining is the predominant mining method worldwide due to its high
MICROPALEONTOLOGY : Introduction and its importance.pptxSurajKumarThakur1
Micropaleontology involves the study of microscopic fossils or microfossils to understand Earth's geological history. Microfossils can be indicators of certain minerals based on the environmental conditions they lived in and the rocks they are found in. For example, foraminifera are often associated with limestone due to their calcium carbonate shells contributing to carbonate-rich sediments. Diatoms and radiolarians frequently indicate siliceous minerals like chert because of their silica cell walls and skeletons. Integrating microfossil analysis with other geological data helps identify the minerals present in a sample and reconstruct paleoenvironments.
The document discusses offshore oil exploration and drilling operations. It begins by explaining how oil is formed from ancient organic matter over millions of years. Geologists use seismic surveys to locate potential oil reservoirs by interpreting reflections of shock waves. If oil is found, exploratory wells are drilled to determine commercial viability. If productive, production wells are drilled and pipelines transport oil to refineries. Drilling rigs are then set up and drilling occurs in stages, with casing installed and cemented between each new section. Wells are logged, tested and completed to allow controlled oil flow up the wellbore.
The document discusses mineral resources in the Philippines. It begins by defining mineral resources and describing how they are extracted from the earth's crust through surface and subsurface mining methods. It then discusses the various impacts of mineral extraction, including environmental impacts like pollution, habitat destruction, and social impacts like human displacement. The document emphasizes that while mining is important for the economy, it also causes significant environmental degradation that requires preventive measures and remediation.
John A Chapman opportunities minerals space 20120131John Chapman
We earthbound humans cannot survive as a single planet species as there is a clear and present danger from super-volcanos and large near-earth-objects. The dinosaurs did not survive – they had no space program. We do have a space program which can be directed to saving humans by detecting, tracking and deflecting near-earth-objects that are potential earth-impactors, as well as creating a moon base as a precursor to populating mars. Great challenges and opportunities lay ahead in achieving these space development objectives; they are essential to ensure our survival.
The wealth from mines, from the dawn of recorded human history, is the epic march of mankind along the path of progress. It was the mines that made ancient civilizations such as Egypt, Greece and Rome great and in more recent times have created immense wealth to the benefit of the people of Europe, North America, Australia and now China, India, Brazil and Russia.
Today, we are part of the “space generation”, crawling off the surface of the earth into the “oceans of space”; mining will continue to provide the capability for humankind to advance to the moon, mars and on to the stars.
This paper proposes the application of proven methods on earth for successful mineral exploration, mineral deposit development and mine/process operations on the moon and mars.
This document provides information on different types of rocks and methods of extracting rocks and minerals from the earth. It discusses igneous rocks which form from cooling magma, sedimentary rocks which form through the compaction and cementation of sediments, and metamorphic rocks which form from changes to existing rocks through heat and pressure. It also describes surface mining techniques like open-pit mining and strip mining used to extract deposits near the earth's surface, as well as subsurface mining techniques like shaft mining used for deeper deposits. Factors that affect decisions around mineral extraction include the grade, size and value of deposits as well as costs of exploration, transportation and environmental impacts.
4 mining and its impacts to environmentanonymous143
- Mining involves extracting valuable minerals from the earth through various surface and underground methods. Surface methods include strip mining, open-pit mining, mountaintop removal, and dredging. Underground methods involve excavating tunnels and shafts.
- The extraction process produces both ore and waste rock. Ore undergoes crushing, grinding, and separation processes like flotation and cyanidation to extract minerals.
- Mining has environmental impacts like flooding, erosion, water and air pollution, and wildlife habitat damage. Preventive measures include replanting vegetation and stabilizing slopes. The government regulates mining through agencies like MGB and EMB and laws like the Mining Act.
Mineralogists study minerals through identification, analysis of formation processes, and classification based on chemical composition and crystal structure. They examine minerals using microscopy, spectroscopy, and other techniques. Their work involves understanding mineral properties, geological history, and economic applications in industries like mining. Mineralogists also contribute to fields like materials science, environmental assessments, education, and resource management. Their expertise helps advance knowledge of Earth's composition and sustainable use of its mineral resources.
Similar to Core Concepts Social Environmental Responsibility (20)
This document outlines a reclamation plan, listing group names for before and during operations, and items to consider like trees/plants, soil, water, animals, host rock, closing up operations, and the final outcome. The plan does not provide any details for each item listed.
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Notions de fond responsabilites sociale et environnementaleMining Matters
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Notions de fond les roches et les minerauxMining Matters
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Notions de fond le cycle de le exploitation miniereMining Matters
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Notions de fond document de reference et evaluationMining Matters
Les notions de fond d’Une mine de renseignements sont des activités autonomes, prêtes à l’emploi, qui traduisent diverses notions essentielles en sciences de la Terre. Puisée dans nos archives de ressources pédagogiques adaptées aux programmes d’études, chaque activité évoque une partie intégrante de multiples notions et théories capitales présentées dans les disciplines variées qui composent les géosciences.
Ces activités ont été colligées de manière à servir de support aux enseignants, à leur éviter la nécessité de participer à des ateliers de formation préalables, et à les rendre utiles à l’ensemble de nos enseignants partenaires. Les contenus de l’ensemble des ressources inscrites dans les Notions de fond sont à l’appui des pratiques actuelles d’enseignement, lesquelles prévoient la participation active des élèves à leur apprentissage. Vous pouvez obtenir d’Une mine de renseignements les échantillons de roches et de minéraux, ainsi que les ressources documentaires nécessaires à une présentation réussie en salle de classe.
Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
Core Concepts Backgrounder and Evaluation StrategiesMining Matters
Mining Matters Core Concepts are standalone classroom ready activities that reflect key foundational ideas in Earth science. Sourced from our archives of curriculum-linked teacher resources, each activity reflects an integral part of many important concepts and theories in the various disciplines that comprise the Geosciences.
In an effort to be of service to all of our teacher-partners, these activities have been assembled as a way to support individual teachers without the need to attend a pre-requisite teacher training workshop. All the contents of the Core Concepts resource support current teaching practices that values hands-on experience where students take an active role in learning. Any rocks and minerals samples as well as print resources required for successful classroom delivery can be sourced through Mining Matters.
Digging Deeper at St. Joseph's College - Rock and mineral lab activity signsMining Matters
This document outlines 12 activities related to rocks and minerals. The activities cover key differences between rocks and minerals, the importance of rocks and minerals in everyday life, scientific testing of minerals, the three main rock groups, the rock cycle, and details on igneous, sedimentary and metamorphic rocks. Later activities investigate geologic time, geology map reading, interpreting mineral data, and mining operations.
Digging Deeper at St. Joseph's College School - Developed by J. Doucet, OCTMining Matters
Lessons/Activities developed by Mr. J. Doucet, Department Head, Canadian and World Studies and teacher of 25 years at St. Joseph’s College School, Toronto Catholic District School Board. These 11 activities, based on the Mining Matters junior resource, Deeper and Deeper: Discovering Rocks and Minerals, is suitable for the Grade 11 physical geography course taught in Ontario. This resource is 100% teacher tested and approved. Rock and mineral samples to supplement the activities may be acquired through Mining Matters. Contact us today at schoolprograms@miningmatters.ca
How to embrace First Nations content in minerals education - Resources for E...Mining Matters
Resources used to prepare for Mining Matters Session " How to Embrace First Nations content in minerals education "
Grade 4 to 9
EECOM 2016 - Manitoba, International Peace Garden
This document provides an overview of a Mining Matters Teachers Workshop that will take place on April 27, 2015 at Dynamic Earth in Sudbury, Ontario. The workshop will include activities that teach teachers about the relationship between minerals, rocks, and everyday products; the types of mines in Ontario and their importance to the province's economy; and a design challenge activity where teachers learn to classify and identify rocks. Teachers will have the opportunity to examine rock and mineral samples using testing equipment and match the samples to specific minerals and products.
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বাংলাদেশের অর্থনৈতিক সমীক্ষা ২০২৪ [Bangladesh Economic Review 2024 Bangla.pdf] কম্পিউটার , ট্যাব ও স্মার্ট ফোন ভার্সন সহ সম্পূর্ণ বাংলা ই-বুক বা pdf বই " সুচিপত্র ...বুকমার্ক মেনু 🔖 ও হাইপার লিংক মেনু 📝👆 যুক্ত ..
আমাদের সবার জন্য খুব খুব গুরুত্বপূর্ণ একটি বই ..বিসিএস, ব্যাংক, ইউনিভার্সিটি ভর্তি ও যে কোন প্রতিযোগিতা মূলক পরীক্ষার জন্য এর খুব ইম্পরট্যান্ট একটি বিষয় ...তাছাড়া বাংলাদেশের সাম্প্রতিক যে কোন ডাটা বা তথ্য এই বইতে পাবেন ...
তাই একজন নাগরিক হিসাবে এই তথ্য গুলো আপনার জানা প্রয়োজন ...।
বিসিএস ও ব্যাংক এর লিখিত পরীক্ষা ...+এছাড়া মাধ্যমিক ও উচ্চমাধ্যমিকের স্টুডেন্টদের জন্য অনেক কাজে আসবে ...
Strategies for Effective Upskilling is a presentation by Chinwendu Peace in a Your Skill Boost Masterclass organisation by the Excellence Foundation for South Sudan on 08th and 09th June 2024 from 1 PM to 3 PM on each day.
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Main Java[All of the Base Concepts}.docxadhitya5119
This is part 1 of my Java Learning Journey. This Contains Custom methods, classes, constructors, packages, multithreading , try- catch block, finally block and more.
Temple of Asclepius in Thrace. Excavation resultsKrassimira Luka
The temple and the sanctuary around were dedicated to Asklepios Zmidrenus. This name has been known since 1875 when an inscription dedicated to him was discovered in Rome. The inscription is dated in 227 AD and was left by soldiers originating from the city of Philippopolis (modern Plovdiv).
3. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 3
TABLE OF CONTENTS
1 Operating a Surface Mine 4
Information Bulletin 6
Reclamation and Rehabilitation 8
Creating a Surface Mine Model 9
2 Wakima - A Case Study 10
Information Bulletin 11
Wakima Town Map 12
Questions and Activity 13
3 Wakima - Research and Roles 14
Student Roles 15
Wakima Town Map 18
4 Wakima - Debate and Decision 19
Did you know that there are complementary and additional resources that will assist with the
delivery of this topic? Please contact Mining Matters and we’d be happy to assist. Be sure to
state, “Core Concepts order request” in the subject line of the email and/or the fax cover sheet.
Mining Matters:
T: (416) 863-6463
F: (416) 863-9900
E: schoolprograms@miningmatters.ca
4. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY4
OPERATING A SURFACE MINE1
MATERIALS
• Information Bulletin - The Mineral
Resource Development Cycle
• NRCan Surface Mine poster
The mining posters: Surface Mine,
Underground Mine, Smelter, and
Concentrator, can be downloaded from
the Mining Matters website at
http://www.pdac.ca/mining-matters/
resources/education/additional-
posters
• Reclamation and Rehabilitation
photo cards
• Reclamation Stories
Canadian Land Reclamation Stories
http://www.clra.ca/default.aspx?page=29
photos included
• Teacher instructions on “Creating a
Model Surface Mine Model.”
• 1 plastic container (250 ml) for
each group
• Approximately 4 litres of country rock
material (see Creating a Model Surface
Mine for suggestions)
• Approximately 300 ml of target mineral/
rock material (see Creating a Model
Surface Mine for suggestions)
• 6 squares of brown construction paper
or fabric
• Tree and grass cut-outs or 6 natural
habitat magazine pictures
• 6 plastic spoons
• 6 paper cups
SUMMARY OF TASK
Students will:
• Investigate the effects of resource extraction on the land, and the processes
of reclamation and rehabilitiation.
EARTH SCIENCE LITERACY PRINCIPLE(S)
BIG IDEA 7 Humans depend on Earth for resources.
BIG IDEA 9 Humans significantly alter the Earth.
OBJECTIVES
1. To operate a model surface mine model provided by the teacher.
2. Investigate how mining companies extract valuable minerals that are close
to the surface of the Earth and then reclaim the land after the process.
INSTRUCTIONS
Engage
1. Distribute Handout Information Bulletin - The Mineral Resource
Development Cycle and discuss and explain the stages.
2. Review the Surface Mine poster with the students. Show students how
the overburden (surface soil and loose rock) is removed and how drilling and
blasting breaks the rock. Large trucks and diggers move the rock to the
crushers and processing plant where the valuable materials are separated
from the host rock.
Explore
3. Explain to students that they will mine their model of a surface mine for
either a valuable rock or mineral.
4. Ask students to draw a picture of their model and make a group list showing
the steps they will follow to mine, and later reclaim, their model.
5. After the plan has been approved, have students start the extraction process:
a. Extract the rock and mineral mixture and place it on the table.
b. Separate the target mineral from the host rock. You will need to instruct
students on the method to use, depending on the materials you chose
for the models. Keep the mineral in a paper cup.
c. Draw a picture of what their surface mine looks like during mining
remembering to include the pile of rock that was taken out of the mine.
Explain
6. Have students answer the following questions:
a. How has mining changed model the landscape.
b. How could we use the pile of mined-out rock that was taken from the
surface mine?
Elaborate
7. Have students reclaim the surface during and after mining is completed,
returning the land to useful purposes. Emphasize the fact that even with
the best technology, reclaimed mine lands may never be returned to its
pre-operation state.
8. Students should draw a picture of the land after mining.
5. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 5
9. Ask each group to share their extracted valuable rocks/minerals with
the class. Discuss with students the steps of their mining and reclamation
operations and any differences between the original model and the model
after reclamation. It is important to note that the reclaimed pit may not look
exactly the same as the original model. For example, students may note
that there is a depression due to the missing minerals that were extracted.
Discuss whether the animals, trees, and plants can be returned to the area
immediately, as well as the time factor involved in restoring a landscape.
Evaluate
10. Show students the Reclamation and Rehabilitation photographs of mine
sites before and after the land has been reclaimed.
11. Students will write three things that have been done to reclaim the land
used for mining.
SUPPORTING INFORMATION
The Surface Mine poster shows the characteristics of a surface mine and the stages used in a typical surface mine operation.
Two common procedures used to separate minerals from rocks take advantage of the physical properties of the sought materials. When
mixed with liquid, heavier or denser minerals sink, and therefore can be separated from lighter minerals. This procedure is called heavy
media separation. This process could be used to separate heavier chalcopyrite from lighter quartz when mining for copper and nickel. If the
valuable minerals are magnetic, they can be separated from other rock and minerals by passing the crushed ore under a powerful magnet.
This procedure is called magnetic separation.
When reclaiming a surface mine, even if all the remaining rock (called “waste” rock, meaning rock devoid of valuable mineralization)
were replaced into the surface mine, the depression formed by mining would not be refilled completely. However, the wall of the depression
can be contoured to gentle slopes, the surface can be covered with topsoil, and grass and trees can be planted to create a naturalized
landscape or environment. In some cases, mined-out surface mines and rock quarries have been made into recreational lakes, public parks,
rock gardens, and farmland.
Mining companies use grass to stabilize slopes and reduce soil erosion, and they plant seeds and seedlings to encourage the establishment
of plant and tree communities. As the plants and trees mature, animal species diversity increases in the area. The habitat reclamation
process is highly monitored by scientists from many disciplines.
• If food is used as the target rock/mineral or country rock/waste, ensure that there are no allergies before
proceeding. Students should be encouraged to wash their hands after manipulating the models.
SAFETY
Key Words:
Basic Terms: heavy media separation, magnetic separation, rock, mineral, mineral resource development cycle, mining cycle, mineral
exploration, staking a claim, mineral evaluation, surface mine, open pit, tailings, separation process, refined, processing
Secondary Terms: geologists, underground mine, environmental specialists
6. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY6
THE MINERAL RESOURCE DEVELOPMENT CYCLE
Mining is an industrial activity that removes rock from the Earth’s crust and processes it to remove valuable minerals for us to use.
We need mineral resources to make many of the things we use in our daily lives, from toothpaste to buildings, computers to cars.
The mineral resource development cycle (mining cycle) is very complicated and generally involves five stages:
• looking for minerals;
• evaluating a mineral discovery;
• building a mine;
• mining and processing minerals;
• and closing the mine and reclaiming the land.
From start to finish, a mining company has to think about how its activities will affect the environment and any nearby communities.
The mining process can take a very long time and cost millions of dollars.
INFORMATION BULLETIN1
Minerals Education British Columbia. (2016). Mineral Resources Development Cycle.
Retrieved from http://www.mineralsed.ca/s/MinDevCycle.asp#ReclaimMonitor
7. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 7
Looking for Minerals
Looking for minerals is called mineral exploration. Geologists use many different methods to look for valuable minerals. They study
satellite images of the Earth and use airplanes or helicopters to measure things, such as the magnetism in the land. Maps also help them
choose an area to explore.
Before a mining company can explore more closely, it must get the exclusive rights to a piece of land. This is called staking a claim. The
company can then use special equipment to look more closely for mineral deposits. Geologists do field work to identify different rocks and
collect rock and soil samples to study in a laboratory. If the results are good, the company drills holes in the ground to take out long, thin
cylinders of rock called cores, which can be studied to find out how much valuable mineral they contain.
Evaluating a Mineral Discovery
Once a mining company finds a mineral deposit, the next step is to decide if it will be worth spending the millions of dollars needed to
construct a mine. A mineral evaluation looks at how much it will cost to construct and operate the mine, to sell the minerals, to take
care of the environment, and whether or not the company will make any money. Finding a good mineral deposit is rare. Very few mineral
exploration properties actually make it to the mineral evaluation stage of the mining process.
Constructing a Mine
Mineral deposits close to the surface of the Earth can be mined by digging a surface or open pit mine. This means using huge diggers to
scrape away the surface material and blasting the solid rock with explosives to reach the valuable minerals. Mineral deposits buried deep
in the Earth have to be mined using an underground mine. This means digging tunnels into the Earth to reach the valuable minerals.
Mining and Processing Minerals
Actual mining can begin once construction of a mine is complete. Miners use drills and explosives to break up the rock and large scoops
and machines to move the rock to the processing plant.
Mined rock contains valuable minerals as well as worthless ones, all mixed together. Processing separates out the valuable minerals
from the waste. Usually, the rock is first crushed into a fine powder. Then, a separation process captures the small amount of valuable
minerals from the large amount of powdered waste rock. Some minerals are then refined to produce pure metal in a process called
smelting. A mining company has to deal with the leftover waste materials, called tailings, which are rock fragments, dust, and chemicals.
They must be stored in safe areas to avoid polluting the air or water.
Closing a Mine and Reclaiming the Land
No mine will last forever. When a mine closes, the mining company has to reclaim the land, making it safe, usable, and a natural part of
the surrounding environment. It must remove the buildings, make sure mine waste doesn’t harm the environment, make any pits or tunnels
safe, and replant the land with grass and trees.
Protecting the Environment and Connecting with Communities
At every stage of the mining process, environmental specialists study the soil, water, wildlife, and vegetation, as well as the air quality and
climate, to make sure an area remains safe and can be returned to usable land when mining is complete. The company also goes to local
communities to learn about the area, explain the mining plans, answer questions, and talk about work opportunities.
8. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY8
RECLAMATION AND REHABILITATION1
BEFORE AND AFTER RECLAMATION
Underground Mine
BEFORE AND AFTER REHABILITATION
Sand and Gravel Pit
Photo of Quirke II Mine, Rio Algom Limited
– Elliot Lake , Ontario prior to reclamation.
Photo of Quirke II Mine following removal of buildings and
prior to reseeding and planting.
Photo of the Fonthill Pit, Steed and Evans Limited,
Fonthill Ontario during rehabilitation.
Photo of the Fonthill Pit showing final rehabilitation.
9. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 9
CREATING A SURFACE MINE MODEL1
1. Create one model of a surface mine for each group of students. There is considerable flexibility in the materials that may be used:
the general principle being to have a valuable mineral or rock that must be separated from a waste or county rock component. Look at
the suggestions in the table below; you can substitute the different valuable target minerals/rocks into alternate country rock.
2. Build the target rock body or mineral ore.
a. In a small container (~250 ml), mix a 4:1 ratio (200 ml: 50 ml) of country rock/waste material and valuable target rock/mineral.
b. Lay brown construction paper or fabric on top of the rock to represent soil.
c. Place tree and grass cut-outs or magazine pictures of natural habitats on top of the soil.
3. (Optional) Put the target rock body or ore in a wider environment.
a. Rest the smaller container inside a larger container (750 ml or 1 litre). Fill the area around the inner container with the same
country rock material as it contains, making sure that the rim of the inner container can be seen after filling.
OR
b. Submerge the small containers in a sand table, making sure the rims can be seen.
Valuable Target Rock/Mineral
Magnetic beads
Paper clips
Dried beans
Large sunflower seeds
Coloured beads
Peanuts in shells
Separation Process
Using a magnet
Using a magnet
Physical picking with fingers
or tweezers
Sieving, physical picking with fingers
or tweezers
Sieving, physical picking with fingers
or tweezers
Crushing and sieving
Country Rock/Waste
Sand or gravel
Potting soil
Pasta
Small-gran bird seed
Rice
Peanut shells
10. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY10
WAKIMA – A CASE STUDY2
MATERIALS
• Figure: A Discussion on Development
- Town of Wakima (Displayed on
available classroom projection technology)
• Handout: Wakima – A Case Study
Information Bulletin
• Handout: A Case Study Questions
Activity
Natural Resources Canada’s Minerals
and Metals Sector develops and
distributes a number of information
products on Aboriginal participation in
exploration and mining.
https://www.nrcan.gc.ca/mining-
materials/aboriginal/bulletin/7817
SUMMARY OF TASK
Students will:
• Identify the factors that must be considered in making informed decisions
about land use (e.g. environmental impact, jobs, present and future values of
natural resources).
EARTH SCIENCE LITERACY PRINCIPLE(S)
BIG IDEA 7 Humans depend on Earth for resources.
BIG IDEA 9 Humans significantly alter the Earth.
OBJECTIVES
1. Become familiar with the Wakima – A Case Study Town Map.
2. Use the map information for informed participation in the class debate.
INSTRUCTIONS
Engage
1. Review map reading skills with students (use of legend, scale, etc.)
Explore
2. Have student examine figure: A Discussion on Development - Town of Wakima.
Explain
3. Distribute the handout: Wakima – A Case Study Information Bulletin.
Elaborate
4. Have students answer the questions on the handout: A Case Study
Questions Activity.
Evaluate
5. Have students present their views using a vote with your body strategy. Set up
signs at 4 sides of the room: For, Against, Unsure or Don’t Know, Not Interested
or Don’t Care. Pose the question to students: “How would you feel if a mining
operation were proposed near to where you live?” Give students 1 minute to
consider their view, and then they move to stand by the appropriate sign. Ask a
few students in each group to share more about their point of view. All
responses are valid, so long as the factual basis is correct. The distribution
of students between each point of view may be used as a baseline on which
to consider changing opinions as the following activities are completed. This
evaluation task can be repeated at relevant times.
SUPPORTING INFORMATION
Answers to Questions Activity
1. 750 m (0.75 km) northwest
1,500 m (1.5 km) northwest
1,200 m (1.2 km) north
700 m (0.7 km) west
2. 425 m
3. Beaver dams
4. Airport, railway and major highway
11. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 11
INFORMATION BULLETIN2
WAKIMA – A CASE STUDY
Wakima is a fictitious town in the northern part of your home province or territory. Trillium Mines is proposing to open a new
underground nickel mine, based on the discovery of a large orebody close to the town. The building of a large mine near any community
prompts questions and discussion and the town of Wakima will experience a debate that brings together many of the interested groups
from within the community and beyond.
William Simmons founded Wakima in 1846. Mr. Simmons built a sawmill at a waterfall on the Misty River and supplied lumber for use
in the gold mines, 10 kilometres to the east, until the early 1900’s. Since then, Wakima has become a well-established community with
a regional rail maintenance yard and switching site. Although it is a strong community, Wakima has experienced a slow down in its
economy in the last few years. Some businesses have had to close and many young people have had to leave Wakima in order to find
employment. A ski resort has been developed nearby, which has attracted some seasonal business. Tourists like to come to the town
because there is very little industry and the surroundings are still natural and attractive.
Trillium Mines has made a proposal to the local town council to build an underground mine on its forested property just outside of
Wakima. The mine would create 200 direct jobs and 450 additional spin-off jobs. The town population of 5,000 would increase to
6,000 and new services would be needed to meet the demands of the new residents. Some people favour the mine, as it will bring
development and resources to the town while others are concerned about the altering of the local environment or a possible increase
in pollution.
The town council is ready to debate the issue of whether or not the mine should be built. You will be assigned a role within an interest
group that brings a particular point of view to the discussion. You need to help research the group’s viewpoint and form an argument
that supports, with examples, this point of view. Make sure that you can respond to opposing group’s arguments, as well. Once the
debate has been concluded, all debate participants will vote, according to their personal opinion, as to whether or not Trillium Mines
should be allowed to go forward with their project.
12. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY12
WAKIMA TOWN MAP2
Legend:
13. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 13
QUESTIONS AND ACTIVITY2
1. Considering the map’s scale and using a straight line, how far and in what compass direction is the proposed mine site from:
The town hall
Wakima Peak’s Ski Lodge
The gas dock at Loon Lake Marina on the First Nations Reserve
Central Wire Building
2. How long is the east-west runway of the airport?
3. What signs of wildlife are there in the area?
4. What facilities are already present in Wakima that would be useful to industry in the area?
5. If the mine were built, how might the area and life in the town be affected? Answer in 4 or 6 sentences. Be sure to consider both
potential benefits and potential problems. What actions could be taken to reduce the potential problems?
14. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY14
WAKIMA – RESEARCH AND ROLES3
MATERIALS
• Figure: A Discussion on Development
- Town of Wakima (Displayed on
available classroom projection technology)
• Handout: Wakima – Research and Roles
Natural Resources Canada’s Minerals
and Metals Sector develops and
distributes a number of information
products on Aboriginal participation in
exploration and mining.
https://www.nrcan.gc.ca/mining-
materials/aboriginal/bulletin/7817
Towards Sustainable Mining (TSM) is the
Mining Association of Canada’s (MAC)
commitment to responsible mining. It
is a set of tools and indicators to drive
performance and ensure that key mining
risks are managed responsibly at our
members’ facilities.
http://www.mining.ca/towards-
sustainable-mining
SUMMARY OF TASK
Students will:
• Identify the factors that must be considered in making informed decisions
about land use (e.g. environmental impact, jobs, present and future values of
natural resources).
EARTH SCIENCE LITERACY PRINCIPLE(S)
BIG IDEA 7 Humans depend on Earth for resources.
BIG IDEA 9 Humans significantly alter the Earth.
OBJECTIVES
1. Work in small groups to develop a point of view and points for discussion
and debate based on information provided and research.
2. Discuss both the positive and negative aspects that can come with a mine
being opened in a community.
3. Be familiar with the social, cultural and economic aspects required for full
participate in the class debate.
INSTRUCTIONS
Engage
1. Review with students the activity 2: Wakima – A Case Study.
2. Review with students the concept of a debate and its purpose in governance.
3. Clarify the steps of getting ready for debate and how the voting process
will proceed.
Explore
4. Divide students into 6 groups and give each group a handout with a role
from the handout: Wakima – Research and Roles.
5. Students will meet with their group and discuss their situation clarifying any
terms or aspects of the assignment.
Explain
6. Students will prepare strategies with which to present their point of view.
7. A spokesperson should be appointed from each group. These students will
then present their group’s specific situation to the class, the fellow citizens
of Wakima.
8. All groups will listen carefully to other’s point of views so that the group can
develop its responses to any issues that will arise in the debate.
Elaborate
9. Each group will meet again to discuss the information presented by other
groups and prepare solutions to the issues that were raised.
Evaluate
10. Explain to students the next step in this case study: Activity 4 Debate and
Decision. Provide them notice of the evaluation criteria that will be used
then for their contribution to the debate.
15. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 15
SUPPORTING INFORMATION
The town debate will decide if Trillium Mines Incorporated will be allowed to open up an underground mine on its Planter Creek Claims in
Wakima. Wakima town council will soon debate the issue whether the mine should be built and under what circumstances. Six groups are
going to present their point of view at the local meeting on this issue.
Key Words:
Basic Terms: orebody, reclamation plan, tailings, concentrate, emissions, milling, contamination, headframe, viable
STUDENT ROLES3
ROLE 1
Trillium Mines Incorporated
Your company, Trillium Mines, has been in the mining business for 15 years and specializes in nickel mining. Four years of exploration
work on the Planter Creek Claims, in the Wakima area, has resulted in the discovery of a significant orebody of nickel. It is estimated
that the amount of nickel found can be mined for at least 20 years. There is currently a shortage of nickel in the world, and in view of
the profitability of this operation, you would like to get started on your mine immediately. Recognising the environmental concerns of
the town, you have an excellent reclamation plan ready to present to the community. When your project shuts down in 20 years, the
buildings will be removed, the property landscaped and the tailings pond site treated and seeded.
Your mine will create 200 direct high paying jobs. The average miner salary will be approximately $50,000. In addition, you have
negotiated with the Wakima First Nations people to provide training and employment to some of their members to fill 10% of the direct
jobs. New homes, schools, restaurants and services will be built if your mine is given the go ahead and 450 spin-off jobs will result in
the province.
You will be mining and producing a nickel concentrate at the site and you will ensure that emissions are kept to industry and
government standards. Should you be given permission to build a mine, you are prepared to build a Sports-Community Centre for
Wakima including an arena and an indoor pool.
ROLE 2
Provincial Government Ministries
(1) Ministry of the Environment
The Ministry of the Environment’s job is to protect the environment. You are concerned about the proposed Trillium mine for the
following reasons:
• Trillium Mines is proposing to build a mine in a forested area where moose travel regularly. The noise caused by the mine may
affect mating patterns and disrupt the moose of the area. You need to review the environmental impact studies carried out by
the company.
• You need to know from Trillium Mines whether or not there will be any dust and other airborne emissions from machinery and
processes used by the mining company.
• You want to make sure that none of the chemicals used in the milling process will leak into the streams of the area and that no
contamination of groundwater occurs from the tailings disposal area.
16. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY16
(2) Ministry of Northern Development and Mines
The Ministry of Northern Development and Mines’ job in this case is to assist Trillium Mines with advancing their mining project.
You want to assist Trillium Mines for the following reasons:
• Your Ministry is concerned with the economic development and wellbeing of communities. Mining is an important
economic activity.
• The Government has developed a set of rules for the safe construction, operation and rehabilitation of mines. You ensure that
Trillium Mines follows these rules.
• Other Ministries and groups have concerns and questions and are sometimes opposed to mine development. You help Trillium
Mines deal with these concerns by suggesting solutions to the issues.
ROLE 3
The Economic Development Commission of Wakima
The Economic Development Commission of Wakima is composed of business people. You are in favour of allowing Trillium Mines to
mine for the following reasons:
• The mine will create 200 direct jobs and 450 indirect ones. New people will be attracted to the town sparking more
economic activity.
• If the project goes ahead, Trillium Mines will build a new $3 million community centre with a pool, arena and auditorium/theatre.
Cineplex Odeon will build a cinema. Your members hope to get construction contracts.
• You have heard rumours that Central Wire, a small 50-employee company in the town, may close. If the new mine opens, the
effect of the job losses at Central Wire may be lessened. Possible wire sales to the new mine may even keep Central Wire
in business.
ROLE 4
“Life Without a Mine is Just Fine” Committee
Upon receiving word that Trillium Mines was seeking to open a mine in the Wakima area your group formed the “Life Without a Mine is
Just Fine” committee. Your group is very concerned that mining will not only destroy the property value of area homes, but will ruin the
environment. Your concerns are:
• The mine will lead to the construction of new homes and businesses and a more crowded town life.
• The mine site will be very ugly and the forest will be destroyed to make way for this project.
• The pollution that the tailings may generate could affect animal, plant and even human life in the area. Many people like life in
Wakima because there is currently no air pollution.
• The moose population in the area will be driven away and some of the aboriginal people won’t be able to practice traditional
winter moose hunting. As well, moose mating habits may be affected by the mining operation.
• The mine may create noise pollution. Heavy trucks and equipment may cause unwanted noise.
• Skiers who use the ski hills in the area would not like to see a mine headframe and cleared area as they ski down a hill that at
this moment has a beautiful panoramic view.
17. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 17
ROLE 5
The First Nations Cultural Protection Committee
Your group represents the aboriginal people living on the Wakima First Nations Reserve. Your people have been living on the reserve
for over 80 years. Your people go moose hunting in the winter and depend on this activity to supplement their annual food supply. You
have formed a committee to protect aboriginal concerns for the following reasons:
• The construction of the mine may bring noise, dust and pollution to an area immediately north of the inhabited section of
your reserve.
• The moose population may be affected by mining and this would directly interfere with the hunting tradition of some of your
community members.
• The protection of plant and wildlife is very important to your culture and further destruction of it will result in your way of life
being negatively affected.
• You are worried that if the tailings pond is not properly monitored, certain substances may leak into local streams and affect the
fish and wildlife.
• Certain commununity members conduct nature tours of the local forest area. They show the local wildlife to tourists. If the mine
is built they are concerned that the wildlife will flee and their jobs will be eliminated.
• Some of your band members would like to get a job at the new mine so you must be careful to ensure the concerns of all of your
members are met.
ROLE 6
Concerned Citizens for Progress
Your group represents the Concerned Citizens for Progress, and was formed to support the mining project because you believe that:
• If the mining project goes ahead, there will be new industry and jobs in the town. New restaurants and shops will be built
making town life more interesting.
• Trillium Mines has promised to build a new sports complex and community centre if it receives permission to mine in the
Wakima area. The local theatre group has no locale at present and has plans to convert the scenic old mill site into a centre for
the performing arts. Increased population and resulting taxes in the town would make the project economically viable.
• Many parents in the community, along with students at local schools, would like a sports complex. At present, Wakima lacks
an arena and indoor pool. Young people would be better served with a sportsplex and would be kept off the streets during their
teenage years. As well, with more restaurants and shops, there would be more part-time jobs for the town’s youth.
• Lack of facilities prevented touring groups from visiting the town. If the old mill site is converted, travelling theatre and dance
groups could perform in town.
18. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY18
WAKIMA TOWN MAP3
Legend:
19. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY 19
WAKIMA – DEBATE AND DECISION4
MATERIALS
• Student-generated research and
material from Activity 3 relevant for
the debate presentation.
SUMMARY OF TASK
Students will:
• Identify the factors that must be considered in making informed decisions
about land use (e.g. environmental impact, jobs, present and future values of
natural resources).
EARTH SCIENCE LITERACY PRINCIPLE(S)
BIG IDEA 7 Humans depend on Earth for resources.
BIG IDEA 9 Humans significantly alter the Earth.
OBJECTIVES
1. To work in small groups to write and present a point of view based on
information provided.
2. Discuss both the positive and negative aspects that can come with a mine
being opened in a community.
3. Be familiar with the social, cultural and economic aspects required for full
participation in the class debate.
4. Demonstrate communication and debating skills.
INSTRUCTIONS
Engage
1. Set-up the room as a meeting hall where a debate will take place. This
requires a speaking area, a waiting area and a head table for those
responsible for managing (adjudicating) the debate.
2. Discuss with the class the rules that will be followed during the debate.
Explain that even though they may disagree with some aspects of their
assigned role, it is their job to present the most positive elements of their
position as they can. Clarify what the role of a moderator will be and how
the voting process will proceed. It should be mentioned that after all the
points of view have been presented and discussed there will be a class
vote on whether or not the mine will proceed. Each vote should be cast as
an individual based on the information discussed in the debate and does not
have to be according to the student’s group stance.
Explore
3. Provide students with the evaluation criteria for their performance in
the debate (see #8 below). Allow groups time to prepare their presentation
according to these criteria and their previous research from activity 3.
Explain
4. The debate moderator is introduced, the mayor of Wakima (the great
grandchild of William Simmons) and will be represented by the teacher.
5. Rules of the debate are stated for the record and meeting is started.
20. CORE CONCEPTS SOCIAL AND ENVIRONMENTAL RESPONSIBILITY20
6. During the group debate, the spokesperson for each group reads
the group’s position as to “yes” the mine should go ahead or “no”
it shoud not and the reasons why. This debate can be done in two
forms where:
a. All groups first present their information without outside
interaction and then an open question period can be conducted
or
b. Groups are put against an opposing side and then allowed a
uniform time limit with which to present their case.
Elaborate
7. At the end of the debate, the mayor will ask everyone to vote. For
the purpose of the vote everyone will be a town councillor and will
vote individually whether or not the mine should be permitted.
When deciding how to vote remind the students to consider the
concerns of each group and what their proposed solutions were.
The majority will decide if Trillium Mines gets to build the mine
or not.
Evaluate
8. Use the following criteria to evaluate each group’s communication
and debating skills.
1. Was the presentation well organized and effective?
2. Did the team present plenty of empirical evidence to defend
its position?
3. Were the arguments presented in a logical and coherent way?
4. Did the team use the allotted time well?
5. Did the team recognize the weak points of the other sides and
ask questions strategically?
6. Did the team appear to know well both sides of the debate?
SUPPORTING INFORMATION
The town debate will decide if Trillium Mines Incorporated will be allowed to open up an underground mine on its Planter Creek Claims
in Wakima. Students are expected to clearly identify the key factors; environmental, social, economic, etc that should be considered in
order for the town council to make an informed decision.