Mineral Resources Strategy – Environmental Contribution Scientific Recommendations from DCE and GINR

Total Page:16

File Type:pdf, Size:1020Kb

Load more

Mineral Resources Strategy – environmental contribution Scientific recommendations from DCE and GINR Kalaallit Nunaanni uuliasiornernik aatsitassarsiornernillu periusissatut pilersaarut – avatangiisit pillugit tapiliut. DCE-mit Pinngortitaleriffimmiillu avatangiisinut tunngassuteqartunik innersuussutit eqikkarnerat Memo from DCE - Danish Centre for Environment and Energy - and the Greenland Institute of Natural Resources Date: 19 March 2019 Authors: Anders Mosbech1 David Boertmann1 Peter Aastrup1 Line A. hKy n1 Kim Gustavson1 Josephine Nymand2 1Department of Bioscience, Section for Arctic Environment 2Greenland Institute of Natural Resources Ordered by: The Environmental Agency for Mineral Resource Activities Number of pages: 75 Quality assurance, DCE: Kirsten Bang Internal review: Susse Wegeberg Greenland summary: Tupaarnaq Olsen and Emma Kristensen Translation to English: AdHoc Translations PINNGORTITALERIFFIK GREENLAND INSTITUTE OF NATURAL RESOURCES Table of Contents Preface 4 1 Summary and recommendations 5 1.1 Recommendations on strategic environmental impact assessments: Continue to build, communicate and operationalise knowledge 7 1.2 Recommendations regarding research aiming to further develop norms, standards and guidelines 8 1.3 Recommendations on further development of oil spill response and preparedness 8 1.4 Recommendation regarding heavy fuel oil (HFO) 9 1.5 Recommendations regarding further development of environmental monitoring 9 1.6 Recommendations regarding improved handling of accumulated effects and the way towards more ecosystem-based management 10 1.7 Recommendations regarding special areas and offshore oil exploration 11 1.8 Recommendations regarding small-scale activities 12 2 Eqikkaaneq innersuussutillu 13 2.1 Avatangiisit pillugit iliuuserineqartussatut nalilersuisarnernut tunngatillugu innersuussutit: Ilisimasanik annertusaajuarneq, paasissutissiineq kiisalu atoriaannaasunngorsaanerit 16 2.2 Ileqqut, malitassat najoqqutassiallu ineriartorteqqinneqarnissaat anguniarlugu ilisimatusarnikkut innersuussutit 17 2.3 Uuliakoortoqartillugu upalungaarsimaniarluni periusissat ineriartorteqqinnissannut innersuussutit 18 2.4 Uulia oqimaatsoq (HFO = Heavy Fuel Oil) pillugu innersuussutit 19 2.5 Avatangiisit nakkutigineqarneranni isumassatigut ineriartortitsinernut tunngatillugu innersuussutit 20 2.6 Pinngortitami sunniutit annertusiartortarnerisa iliuuseqarfigineqartarnerisalu pitsanngorsaaviginissaannik innersuussutit aammalu pinngortitami uumassuseqassutsit ataqatigiinnerat aallaaviginerullugu aqutseriaaseqariartuuaarnissamut aqqut 21 2.7 Sumiiffinnut immikkuullarissunut imaatigullu uuliamik ujaasinernut tunngatillugu innersuussutit 22 2.8 Annikitsumik misissuinissamik piiaanissamillu akuersissutinut tunngatillugu innersuussutit 23 3 Introduction 25 3.1 The scientific advisors – DCE and GINR 25 4 Background 28 4.1 Environmental impacts from mineral resource industry 28 4.1.1 Physical impacts 28 4.1.2 Disturbance of wildlife 30 4.1.3 Discharge and emission – pollution 31 4.1.4 Accidents 34 2 4.2 Past problems in connection with oil exploration and mining activities in Greenland 35 4.3 How do conditions other than mineral resource activities affect the Artic environment, nature and climate? 36 4.4 What knowledge has been built in Greenland on the impacts of mineral resource activities and how is it used? 38 5 Future knowledge-based regulation of mineral resource activities 41 5.1 Regulation of land-based activities 41 5.2 Regulation of offshore oil activities 45 5.3 Regulation of small-scale activities 45 5.4 Offshore regulation – underwater noise and oil spills 46 5.4.1 Underwater noise 47 5.4.2 Oil spill 50 5.5 Regulation of discharges and emissions 53 5.5.1 Mineral resource activities 53 5.5.2 Shipping 56 5.5.3 Recommendations in connection with release of pollutants 57 6 Appendices 58 6.1 Appendix 1. List of acronyms used in this memo. 58 6.2 Appendix 2. Memo on the use of heavy fuel oil in Greenland. 59 6.3 Appendix 3. Memo on some areas proposed to be kept free of hydrocarbon exploration activities (in Danish) 64 6.4 Appendix 4. Memo on strategic environmental impact assessments (in Danish) 67 6.5 Appendix 5. Memo on prioritation and costs of future updates and new strategic environmental impact assessments (in Danish) 71 6.6 Supplementary map 75 3 Preface The Environmental Agency for Mineral Resource Activities is the administrative unit responsible for the regulation of environmental, nature and climate conditions in connection with mineral resource activities in Greenland. This is done within the scope of the provisions of the Mineral Resources Act on environment, nature and climate protection. The overall purpose of the Mineral Resources Act is for all activities in the area to be carried out with due regard to the environment – and in accordance with recognised good international practice under similar conditions. Comprehensive and in-depth knowledge of environment and nature is required to meet this purpose. Already when the mineral resource exploration starts, we have to be able to asses the future environ- mental effects. How many birds and animals live in the area and how will they react to noise and disturbance? Which potential polluting compounds are bound in the rocky cliffs and will they be washed out if the cliffs are blasted and mined? Will any rivers or lakes be affected by dust from the industrial activities? What will happen to the local vegetation cover if roads have to be constructed? The mineral resource companies have an obligation to take account of, assess and uncover the envi- ronmental conditions. In this connection, the independent scientific advisors, help the Environmental Agency for Mineral Resource Activities, by providing the necessary background knowledge through their own research and studies. Moreover, they help ensure that the studies made by mineral resource companies are adequate and accurate to plan the activities properly and with due regard to the local conditions – and using methods that are in accordance with recognised good international practice. Finally, they help consider all applications for new licences, activities, etc. The scientific advisors also make recommendations to the Environmental Agency for Mineral Re- source Activities, which either makes decisions based on the recommendations or prepares decision- making proposals for Naalakkersuisut based on the recommendations. The division of responsibilities is clear. This is to ensure that the scientific consultancy work and the content of the recommendations are independent of administrative or political interests. As a result, these recommendations constitute an independent contribution to the future mineral resources strategy 2019-2023. Najaaraq Demant-Poort The Environmental Agency for Mineral Resource Activities 4 1 Summary and recommendations This report contains advice from Danish Centre for Environment and Energy (DCE) and Greenland Institute of Natural Resources (GINR) to the Environmental Agency for Mineral Resource Activities on the development of an environmental strategy for mineral resource activities in Greenland. The first chapters give a brief general introduction to the environmental issues and how they can be handled, whereas the following chapters describe more specifically how the challenges are handled through planning, rules and regulations, and activities are pointed out that can strengthen the efforts in the coming strategy period. The purpose of this background report is to point to development potential in the knowledge base and regulation which can ensure: • Minimisation of environmental effects from mineral resource activities. • That the environmental effects do not exceed the effects prescribed by international standards. • Consideration for special Arctic or Greenland conditions. • That no environmental effects occur other than those accepted by the authorities in their approval of the project, including that areas do not have or will not get environmental problems limiting the use of the areas after the exploitation of mineral resources. • That the environmental regulation is based on an adequate knowledge base, making it unnecessary to recommend stricter requirements due to lack of knowledge of the possible effects (the precautionary principle). Mineral resource activities (for more details, see Textbox 1) will necessarily impact nature and environment. Typically, it will be necessary to establish temporary industrial areas in connection with exploitation of mineral resources, whether it is mining or oil production. However, while opening up for development and industrialisation, environmental regulation and nature planning must ensure that the environmental and natural basis is not destroyed for current and future generations. With sufficient knowledge about e.g. process technology, geochemistry, ecotoxicology, biodiversity and ecological contexts, the environmental effects from a new mineral resource activity can be predicted and often limited significantly, especially outside the actual exploitation area. Focus must be on ensuring that the activity does not pollute the surrounding environment to an unacceptable degree, that nature is not disturbed unnecessarily and that the activity area is left in a good environmental condition once the activities have ended. In mineral resource projects, it is important to identify the total possible environmental effects already at the planning stage. Detailed planning and use of the best technology may significantly limit the
Recommended publications
  • (WHO) Report on Microplastics in Drinking Water

    (WHO) Report on Microplastics in Drinking Water

    Microplastics in drinking-water Microplastics in drinking-water ISBN 978-92-4-151619-8 © World Health Organization 2019 Some rights reserved. This work is available under the Creative Commons Attribution-NonCommercial-ShareAlike 3.0 IGO licence (CC BY-NC-SA 3.0 IGO; https://creativecommons.org/licenses/by-nc-sa/3.0/igo). Under the terms of this licence, you may copy, redistribute and adapt the work for non-commercial purposes, provided the work is appropriately cited, as indicated below. In any use of this work, there should be no suggestion that WHO endorses any specific organization, products or services. The use of the WHO logo is not permitted. If you adapt the work, then you must license your work under the same or equivalent Creative Commons licence. If you create a translation of this work, you should add the following disclaimer along with the suggested citation: “This translation was not created by the World Health Organization (WHO). WHO is not responsible for the content or accuracy of this translation. The original English edition shall be the binding and authentic edition”. Any mediation relating to disputes arising under the licence shall be conducted in accordance with the mediation rules of the World Intellectual Property Organization. Suggested citation. Microplastics in drinking-water. Geneva: World Health Organization; 2019. Licence: CC BY-NC-SA 3.0 IGO. Cataloguing-in-Publication (CIP) data. CIP data are available at http://apps.who.int/iris. Sales, rights and licensing. To purchase WHO publications, see http://apps.who.int/bookorders. To submit requests for commercial use and queries on rights and licensing, see http://www.who.int/about/licensing.
  • Minerals in Your Home Activity Book Minerals in Your Home Activity Book

    Minerals in Your Home Activity Book Minerals in Your Home Activity Book

    Minerals In Your Home Activity Book Minerals in Your Home Activity Book Written by Ann-Thérèse Brace, Sheila Stenzel, and Andreea Suceveanu Illustrated by Heather Brown Minerals in Your Home is produced by MineralsEd. © 2017 MineralsEd (Mineral Resources Education Program of BC) 900-808 West Hastings St., Vancouver, BC V6C 2X4 Canada Tel. (604) 682-5477 | Fax (604) 681-5305 | Website: www.MineralsEd.ca Introduction As you look around your home, it is important to think of the many things that you have and what are they made from. It’s simple - everything is made from Earth’s natural resources: rocks, soil, plants, animals, and water. They can be used in their natural state, or processed, refined and manufactured by people into other useable things. The resources that grow and can be replaced when they die or are harvested, like plants and animals, are called renewable resources. Those that cannot be regrown and replaced, like rocks, soil and water, are called non-renewable resources. All natural resources are valuable and we must use them conservatively. Mineral resources are natural Earth materials that must be mined from the ground. We use them every day, and they are non- renewable. Some are changed very little before they are used, like the rock granite for example, that is commonly used to make kitchen countertops or tombstones. Other mineral resources, like those that contain useful metals, must be processed to extract the metal ingredient. The metal is then manufactured into different parts of a product, like a toaster or a smartphone. Whether you are practicing violin in your room, eating a meal in the kitchen, watching TV in the living room or brushing your teeth in the bathroom, your daily activities use things that come from mineral resources.
  • 40 Common Minerals and Their Uses

    40 Common Minerals and Their Uses

    40 Common Minerals and Their Uses Aluminum Beryllium The most abundant metal element in Earth’s Used in the nuclear industry and to crust. Aluminum originates as an oxide called make light, very strong alloys used in the alumina. Bauxite ore is the main source aircraft industry. Beryllium salts are used of aluminum and must be imported from in fluorescent lamps, in X-ray tubes and as Jamaica, Guinea, Brazil, Guyana, etc. Used a deoxidizer in bronze metallurgy. Beryl is in transportation (automobiles), packaging, the gem stones emerald and aquamarine. It building/construction, electrical, machinery is used in computers, telecommunication and other uses. The U.S. was 100 percent products, aerospace and defense import reliant for its aluminum in 2012. applications, appliances and automotive and consumer electronics. Also used in medical Antimony equipment. The U.S. was 10 percent import A native element; antimony metal is reliant in 2012. extracted from stibnite ore and other minerals. Used as a hardening alloy for Chromite lead, especially storage batteries and cable The U.S. consumes about 6 percent of world sheaths; also used in bearing metal, type chromite ore production in various forms metal, solder, collapsible tubes and foil, sheet of imported materials, such as chromite ore, and pipes and semiconductor technology. chromite chemicals, chromium ferroalloys, Antimony is used as a flame retardant, in chromium metal and stainless steel. Used fireworks, and in antimony salts are used in as an alloy and in stainless and heat resisting the rubber, chemical and textile industries, steel products. Used in chemical and as well as medicine and glassmaking.
  • Chapter 2 the Solid Materials of the Earth's Surface

    Chapter 2 the Solid Materials of the Earth's Surface

    CHAPTER 2 THE SOLID MATERIALS OF THE EARTH’S SURFACE 1. INTRODUCTION 1.1 To a great extent in this course, we will be dealing with processes that act on the solid materials at and near the Earth’s surface. This chapter might better be called “the ground beneath your feet”. This is the place to deal with the nature of the Earth’s surface materials, which in later sections of the chapter I will be calling regolith, sediment, and soil. 1.2 I purposely did not specify any previous knowledge of geology as a prerequisite for this course, so it is important, here in the first part of this chapter, for me to provide you with some background on Earth materials. 1.3 We will be dealing almost exclusively with the Earth’s continental surfaces. There are profound geological differences between the continents and the ocean basins, in terms of origin, age, history, and composition. Here I’ll present, very briefly, some basic things about geology. (For more depth on such matters you would need to take a course like “The Earth: What It Is, How It Works”, given in the Harvard Extension program in the fall semester of 2005– 2006 and likely to be offered again in the not-too-distant future.) 1.4 In a gross sense, the Earth is a layered body (Figure 2-1). To a first approximation, it consists of concentric shells: the core, the mantle, and the crust. Figure 2-1: Schematic cross section through the Earth. 73 The core: The core consists mostly of iron, alloyed with a small percentage of certain other chemical elements.
  • Minerals for Livestock

    Minerals for Livestock

    Station BulIetn 503 October 1951 Minerals for Livestock J. R. Haag Agrkultural Experiment Station Oregon State College Corvallis Foreword Oregon livestock producers are aware of the need for additional information on the use of mineral sup- plements.These materials frequently are purchased when not needed with the particular rations that are being used.The intelligent use of minerals pays divi- dends.Over-use may be harmful. This bulletin has been revised to give livestock pro- ducers and feed dealers the latest available information that will assist them in selecting and feeding only such materials as may be needed to supplement the natural supply already available in their feedstuffs. Although noteworthy progress is being made we believe that research must be intensified in Oregon to provide more complete information on the adequacy of minerals in feed produced in the various areas of the State.Evidence being accumulated by our research staff indicates that deficiencies peculiar to certain areas are causing serious losses among livestock. Dean and Director Minerals for Livestock By J. R. HAAG, Chemist (Animal Nutrition) Oregon State College animals require an abundance of palatable feedstuffs as a FARMsource of energy, fats, proteins, minerals, and vitamins.These feedstuffs must be suitable for the kind of livestock maintained and, in addition, must be available at a cost that will permit profitable livestock production. The mineral salts constitute only one of the groups of nutrients that play important parts in animal nutrition.Some mineral ele- ments, like calcium and phosphorus, are needed in large amounts, while others, like iodine, are required only invery minute traces.
  • 13. Nutrient Minerals in Drinking Water: Implications for the Nutrition

    13. Nutrient Minerals in Drinking Water: Implications for the Nutrition

    13. NUTRIENT MINERALS IN DRINKING WATER: IMPLICATIONS FOR THE NUTRITION OF INFANTS AND YOUNG CHILDREN Erika Sievers Institute of Public Health North Rhine Westphalia Munster, Germany ______________________________________________________________________________ I. INTRODUCTION The WHO Global Strategy on Infant and Young Child Feeding emphasizes the importance of infant feeding and promotes exclusive breastfeeding in the first six months of life. In infants who cannot be breast-fed or should not receive breast milk, substitutes are required. These should be a formula that complies with the appropriate Codex Alimentarius Standards or, alternatively, a home-prepared formula with micronutrient supplements (1). Drinking water is indispensable for the reconstitution of powdered infant formulae and needed for the preparation of other breast-milk substitutes. As a result of the long-term intake of a considerable volume in relation to body weight, the concentrations of nutrient minerals in drinking water may contribute significantly to the total trace element and mineral intake of infants and young children. This is especially applicable to formula-fed infants during the first months of life, who may be the most vulnerable group affected by excessive concentrations of nutrients or contaminants in drinking water. Defining essential requirements of the composition of infant formulae, the importance of the quality of the water used for their reconstitution has been acknowledged by the Scientific Committee on Food, SCF, of the European Commission (2). Although it was noted that the mineral content of water may vary widely depending upon its source, the optimal composition remained undefined. Recommendations for the composition of infant formulae refer to total nutrient content as prepared ready for consumption according to manufacturer’s instructions.
  • Mineral Materials from BLM-Administered Federal Lands

    Mineral Materials from BLM-Administered Federal Lands

    How to Obtain Mineral Materials From BLM-Administered Federal Lands Including Stone, Sand and Gravel, Clay, and Other Materials Introduction The Department of the Interior‘s Bureau of Land Man- agement (BLM) is a multiple-use land management agency responsible for administering 262 million acres of public land located primarily in the western United States, including Alaska. The BLM manages many resource programs, such as minerals, forestry, wilderness, recreation, fisheries and wildlife, wild horses and burros, archaeology, and range- land. This brochure con- tains information about the mineral materials program. Mineral materi- als include common vari- eties of sand, stone, gravel, pumice, pumicite, clay, rock, and petrified Concrete and asphalt aggregate (crushed stone) used for airport wood. The major Federal runways, highways, bridges, and high-rise buildings. law governing mineral materials is the Materials Act of 1947 (July 31, 1947), as amended (30 U.S. Code 601 et seq.). This law authorizes the BLM to sell mineral materials at fair market value and to grant free-use permits for mineral materials to Government agencies. It also allows the BLM to issue free-use permits for a limited amount of material to nonprofit organizations. How Are Mineral Materials Important to Our Society? Mineral materials are among our most basic natural resources. These materials are in everyday construction, agriculture, and decorative applications (Table 1). The United States uses about 2 billion tons of crushed stone, dimension stone, and sand and gravel every year. Our highways, bridges, power plants, dams, high-rise buildings, railroad beds, and airport runways, along with their foundations and sidewalks, all use mineral materials of one type or another.
  • Laboratory Mineral Soil Analysis and Soil

    Laboratory Mineral Soil Analysis and Soil

    Institute of Organic Training & Advice: Research Review: Laboratory mineral soil analysis and soil mineral management in organic farming (This Review was undertaken by IOTA under the PACA Res project OFO347, funded by Defra) RESEARCH TOPIC REVIEW: Laboratory mineral soil analysis and soil mineral management in organic farming Authors: Christine Watson, Scottish Agricultural College Elizabeth Stockdale, School of Agriculture Food and Rural Development, Newcastle University Lois Philipps, Abacus Organic Associates 1. Scope and Objectives of the Research Topic Review The objective of the Research Review “ Laboratory mineral soil analysis and soil mineral management in organic farming ” is to draw together all the available relevant research findings in order to develop the knowledge and expertise of organic advisers and thereby to improve soil management practice on organic farms. The Review will concentrate on N, P and K and: 1. Identify all the relevant research undertaken 2. Collate the results of research and summarise the findings of each project 3. Draw on practical experience 4. Analyse the research and summarise the conclusions in a form that is easily accessible by advisers and can be used to help them select appropriate soil analytical techniques and to interpret the results and provide practical advice to farmers on soil management and amendments. 2. Introduction to measuring soil fertility in organic farming. The capacity to improve the fertility of a given soil through management is inextricably linked to the inherent properties of that site – soil texture, mineralogy, slope and climate. Ideally soil fertility should be assessed for the soil in situ , in the field/farm context, rather than as a list of properties of an isolated sample.
  • Inorganic Compounds Organic Compounds

    Inorganic Compounds Organic Compounds

    BOTTLED WATER INFORMATION Aquafina is purified drinking water that meets and exceeds the requirements set forth by the U.S. Environmental Protection Agency (EPA), the U.S. Food and Drug Administration as well as local regulatory requirements. Our Aquafina plants each conduct on average 320 tests daily, 1950 tests weekly, and − when we include off-site monitoring, 102,000 tests annually to assure the consistent quality of our Aquafina bottled water. A 2019 sample water quality analysis for Aquafina is listed below. Inorganic Compounds Analysis Performed MCL* Results for Purified (mg/L) Finished Product Aluminum 0.2 ND Antimony 0.006 ND Arsenic 0.010 ND Barium 2.0 ND Beryllium 0.004 ND Cadmium 0.005 ND Chloride 250.0 ND Chromium 0.1 ND Copper 1 ND Cyanide (As free cyanide) 0.2 ND Fluoride 4.0 ND Iron 0.3 ND Lead 0.005 ND Manganese 0.05 ND Mercury (Inorganic) 0.002 ND Nickel 0.1 ND Nitrogen (as Nitrate) 10 ND-0.26 Nitrogen (as Nitrite) 1 ND Selenium 0.05 ND Silver 0.1 ND Sulfate 250.0 ND-0.96 Thallium 0.002 ND Zinc 5.0 ND Organic Compounds Analysis Performed MCL* Results for Purified (mg/L) Finished Product Alachlor 0.002 ND Atrazine 0.003 ND Benzene 0.005 ND Benzo(a)pyrene (PAHs) 0.0002 ND Carbofuran 0.04 ND Carbon Tetrachloride 0.005 ND Chlordane 0.002 ND PepsiCo, Inc. Date Updated to Website: June 2019 Page 1 Organic Compounds Cont. Analysis Performed MCL* Results for Purified (mg/L) Finished Product 2,4-D 0.07 ND Dalapon 0.2 ND 1,2-Dibromo-3-chloropropane (DBCP) 0.0002 ND o-Dichlorobenzene 0.6 ND p-Dichlorobenzene 0.075 ND 1,2-Dichloroethane
  • Rock and Mineral Identification for Engineers

    Rock and Mineral Identification for Engineers

    Rock and Mineral Identification for Engineers November 1991 r~ u.s. Department of Transportation Federal Highway Administration acid bottle 8 granite ~~_k_nife _) v / muscovite 8 magnify~in_g . lens~ 0 09<2) Some common rocks, minerals, and identification aids (see text). Rock And Mineral Identification for Engineers TABLE OF CONTENTS Introduction ................................................................................ 1 Minerals ...................................................................................... 2 Rocks ........................................................................................... 6 Mineral Identification Procedure ............................................ 8 Rock Identification Procedure ............................................... 22 Engineering Properties of Rock Types ................................. 42 Summary ................................................................................... 49 Appendix: References ............................................................. 50 FIGURES 1. Moh's Hardness Scale ......................................................... 10 2. The Mineral Chert ............................................................... 16 3. The Mineral Quartz ............................................................. 16 4. The Mineral Plagioclase ...................................................... 17 5. The Minerals Orthoclase ..................................................... 17 6. The Mineral Hornblende ...................................................
  • C Stocks in Forest Floor and Mineral Soil of Two Mediterranean Beech Forests

    C Stocks in Forest Floor and Mineral Soil of Two Mediterranean Beech Forests

    Article C Stocks in Forest Floor and Mineral Soil of Two Mediterranean Beech Forests Anna De Marco 1, Antonietta Fioretto 2, Maria Giordano 1, Michele Innangi 2, Cristina Menta 3, Stefania Papa 2 and Amalia Virzo De Santo 1,* 1 Department of Biology, Complesso Universitario di Monte Sant’Angelo, Via Cintia, 21, 80126 Napoli, Italy; [email protected] (A.D.M.); [email protected] (M.G.) 2 Department of Environmental, Biological and Pharmaceutical Sciences and Technologies, Second University of Naples, Via Vivaldi, 43, 81100 Caserta, Italy; antonietta.fi[email protected] (A.F.); [email protected] (M.I.); [email protected] (S.P.) 3 Department of Life Sciences, University of Parma, Via Farini, 90, 43124 Parma, Italy; [email protected] * Correspondence: [email protected]; Tel.: +39-081-679-100 or +39-348-353-5925 Academic Editor: Björn Berg Received: 19 May 2016; Accepted: 16 August 2016; Published: 22 August 2016 Abstract: This study focuses on two Mediterranean beech forests located in northern and southern Italy and therefore subjected to different environmental conditions. The research goal was to understand C storage in the forest floor and mineral soil and the major determinants. Relative to the northern forest (NF), the southern forest (SF) was found to produce higher amounts of litterfall (4.3 vs. 2.5 Mg·ha−1) and to store less C in the forest floor (~8 vs. ~12 Mg·ha−1) but more C in the mineral soil (~148 vs. ~72 Mg·ha−1). Newly-shed litter of NF had lower P (0.4 vs. 0.6 mg·g−1) but higher N concentration (13 vs.
  • MINERAL to ROCK MINERALS ALL AROUND US Minerals Are All Around Us

    MINERAL to ROCK MINERALS ALL AROUND US Minerals Are All Around Us

    FROM MINERAL TO ROCK MINERALS ALL AROUND US Minerals are all around us. They are used to make many of the products we use everyday. Minerals provide us with the metals that help us make cars, aircraft, jewelry and coins. Below is a list of other items we use that are made of minerals: lead pencils (graphite) Minerals are made of atoms (tiny particles) from fertilizer (potassium, sodium, calcium) different elements such as oxygen, carbon, lead and silicon. The atoms form simple patterns that give chalk (gypsum) mineral cystals characteristic shapes. The hidden flashbulb (zirconium) pattern of the packed together atoms is always the same in any particular mineral. Minerals can be identified by window glass/mirrors (silica) their color, density, hardness and shape. table salt (halite) Color: Streak is a mineral's color in powder form. It can be seen when the mineral is scraped across a Minerals that concentrate into deposits from which one tile. or more minerals and rocks may be extracted are called ores. In Michigan, iron ore (hematite) is mined in the Density: This is the mineral's weight per unit Upper Peninsula. The earliest commercial deposits volume. Water is assigned a density of 1 and the were found in Marquette County in 1844. Until about specific density measurements of other materials are 1900, Michigan was the leading producer of iron ore in compared to it. A mineral fragment that weighs 2.1 the United States. times as much as an equal volume of water has a density measurement of 2.1. Another mineral that brought attention to Michigan was the “native copper” deposits of the Keweenaw Peninsula Hardness: A mineral's hardness is one of the most in the western Upper Peninsula.