TAGEBAU
–—
Einführung in den Tagebau, Tagebau- und Steinbruchprozesse sowie Wirtschaft, Management, Automatisierung und Digitalisierung von Tagebaubetrieben

Inhaltsverzeichnis

Vorwort

In the diverse field of Surface mining, where minerals or materials are extracted near the earth´s survace, this book focuses on quarries and open-pit mines. This is because Aggregate mining or Quarrying (sand, gravel and crushed stone) is the dominant form of open-pit mining in Europe, followed by Open-pit mining for industrial minerals or various ores.

Strip mining or Open-cast mining in near-surface area, which is common for coal and lignite plays a role in Germany, Poland, Bulgaria, Serbia and Kosovo. As a speciality among European mines it is not covered in this book.

Other types of open-pit mining, such as Mountaintop removal and Placer mining are non-existent or rare due to stringent environmental guidelines and an emphasis on sustainable and less invasive mining methods. Placer mining now only takes place in limited, small-scale, artisanal contexts.

This handbook provides a comprehensive examination of the most important aspects of open-pit mines and quarries that are relevant to professionals and students alike. The book is divided into the following chapters:

  • Introduction to open-pit mining: Defines open pit mining in relation to underground mining, highlighting its importance in the extraction of key raw materials as well as its role in various industries. Statistical data on the global production of raw materials from open-pit mines will also be integrated.
  • Raw materials science and geology in open-pit mining: A deposit is an accumulation of mineral raw materials that can be mined economically. Deposits can be classified according to various criteria, such as the type of mineral raw material, the type of rock and the technical rock parameters. This chapter deals with the basics of deposit science, geological exploration and evaluation of deposits, and rock mechanics in open-pit mining.
  • Planning and design of open-pit mines: The choice of mining method depends on the type of deposit, the technical rock parameters and the economic conditions. Common mining methods in open-cast mining are mechanical mining (e.g. by tearing) and drilling and blasting. This chapter deals with mining planning and methods, the design and dimensioning of opencast mines.
  • Production factors in mining: This chapter examines both conventional and modern factors of production in mining, including the role of land, labour and capital as well as performance, means of production and raw materials. It also discusses the importance of energy, knowledge, and the process of transforming goods and services into money as part of the sales process.
  • Mining technologies in open-pit mining and quarries: This chapter provides a detailed description of the most important processes in open pit mining such as drilling, blasting, loading, conveying and processing. The individual steps and the machinery and technologies used are covered, including conventional mining methods and the use of continuous extraction systems.
  • Mobile mining machines and their activities: This chapter introduces the different types of mobile mining equipment and their respective activities. The selection of machines is explained depending on the mining volume, the conveying distance and the economic aspects. The focus is on connectivity between the deposit and the mine infrastructure, taking into account the mining plan and the mined raw materials.
  • Processing of raw materials: This chapter introduces the basics of processing technology, such as comminution, classification, separation and concentration. The various processing processes and plants are described in detail and the selection of suitable processes and plants depending on the type of raw material and the requirements for the end product are explained. The importance of reprocessing for the production of marketable products is emphasized.
  • Economic aspects: Cost accounting is an important tool for planning, controlling and controlling costs in mining. This chapter looks at the different types of costs in open pit mining, cost control, and investment decisions. It also discusses the role of economic analysis in assessing the profitability of mining projects.
  • Organization and management: This chapter sheds light on the organizational structure and processes in mining companies. Topics such as process management, data management and the organization of resources (personnel, machines, energy, deposits, products) are discussed.
  • Automation and digitalization: This chapter discusses how automation and digitalization will fundamentally change the mining industry. It provides an overview of various information systems in open-pit mining and discusses the application of data analysis and process optimization. The importance of data-driven decisions for increasing efficiency and productivity in open-pit mining is emphasized.
  • Operational efficiency and process optimization: This chapter examines the possibilities of data analysis and process optimization in open-pit mining using data mining, machine learning and business intelligence. The importance of data-driven decisions for increasing efficiency and productivity in open-pit mining is highlighted. Various KPIs for mining processes will be presented, including metrics for mass flow, machine efficiency, and fleet performance.
  • Legal and social aspects of open-pit mining: This chapter deals with the legal basis of opencast mining, in particular mining law and licensing procedures. It highlights the importance of complying with legal requirements for the safe and environmentally sound operation of open-pit. In addition, the challenges of social acceptance of mining projects and the importance of dialogue with stakeholders and transparent communication about the impacts of open-pit mining are addressed.
  • Mining Glossary: A comprehensive glossary of the most important technical terms in the areas of mining methods, mine planning, raw materials, deposits, rock mechanics, mining, mobile machinery, mining infrastructure, processing, personnel, environmental aspects, products and economic efficiency.

Keywords: Quarry, open pit mine, raw material, deposit, strip ratio, production cycle, mining products, cost calculation, mining KPIs

Einführung in den Tagebau

Definition and Importance of Open Pit Mining

This section was intended to define open pit mining as a method of mining compared to underground mining, highlighting its importance in the extraction of key raw materials as well as its role in various industries. Statistical data on the global production of raw materials from open-pit mines can also be integrated.

Overview of the main mining methods

Mining is the extraction of valuable minerals or other geological materials from the earth. There are two main types of mining methods:

  • Underground mining: The extraction of raw materials takes place underground.
  • Surface mining: The raw materials are mined from the earth's surface.

In the context of this book, the term surface mining refers to the two forms:

  • Open-pit mining and
  • Quarrying
Underground mining

Underground mining is a method of extracting raw materials in which the raw materials are mined below the earth's surface. Unlike open-pit mining, which allows mining from the surface, underground mining requires the construction of tunnels, shafts or galleries to access the deposits. This method is used when the orebodies are deep, have a vertical orientation, or have irregular shapes.

Underground mining can be more dangerous for workers compared to open-pit mining, as it involves working in confined spaces and underground tunnels. However, it may have a lower impact on the surface and is therefore often preferred in areas where there are environmental or safety concerns.

Open-pit mining and quarrying

Open-pit mining and quarrying are two forms of surface mining in which mineral resources are extracted from the earth's surface. The main difference between open-pit mining and quarrying lies in the type of material mined and the scale of operations.

Open-pit mining is typically used for the mining of low-grade mineralized ores such as coal, copper, iron ore, gold, but also industrial minerals. It is a large-scale operation an may require the removal of large amounts of overburden (rock and soil covering the deposit) and the creation of a large, open pit mine.

In contrast to opencast mining, quarries are used to extract rocks such as limestone, granite and basalt, which are used as construction materials. They are generally smaller than open-cast mines and require less overburden removal. In quarries, the rock is usually extracted by drilling and blasting or by mechanical extraction methods.

Significance of open-pit mining

As open-pit mining is a significant method for extracting minerals from the Earth, it´s estimated that approximately 70 % of the world´s annual mineral production is obtained through open-pit mining 1. This method is particuarly effective for extracting large quantities of minerals such as copper, iron, gold and coal.

The choice between open pit mining and underground mining depends on factors such as ore depth, ore shape, safety aspects, environmental impact and economic feasibility. Each method has its advantages and disadvantages, and the selection of the appropriate mining method is based on the specific characteristics of the ore deposit and the objectives of the project.

What´s the differentiation to other mining methods?

The main difference between open-pit mining and other mining methods, such as underground mining, lies in the way the valuable minerals or ores are accessed and mined. Here are the key differentiators:

1.) Access to Ore Deposit:

  • Open-pit mining: In open-pit mining, the ore is located near the surface, and a large, open excavation (pit) is created to access and extract the valuable materials. This method is suitable when the ore body is relatively shallow and extends horizontally.
  • Underground Mining: In underground mining, tunnels, shafts, or declines are used to access ore deposits that are located deeper below the Earth's surface. This method is employed when ore bodies are deep, vertical, or have irregular shapes.

2.) Extraction Process:

  • Open-pit mining: The extraction process involves removing overburden (the rock and soil covering the ore) with heavy machinery, such as excavators and trucks. Once the overburden is removed, the ore is exposed and can be extracted using equipment like bulldozers and shovels.
  • Underground Mining: In underground mining, ore is extracted from the ore body directly, using methods like drilling, blasting, and tunneling. Miners work within the mine's underground network to access and extract the ore.

3.) Safety and environmental aspects:

  • Open-pit mining: Open-pit mining is generally considered safer for workers because it is not necessary to work in confined spaces underground. However, it can have a larger environmental footprint because large open pits have to be dug and the overburden disposed of.
  • Underground mining: Underground mining can be more dangerous for workers because of the potential risks associated with working in confined spaces and underground tunnels. However, it can have a lower impact on the surface and is often preferred in areas where there are environmental safety concerns.

4.) Accessibility of resources:

  • Open-pit mining: Suitable for ore bodies that are close to the surface, extensive and have relatively shallow or slightly inclined formations.
  • Underground mining: Used for ore bodies that lie deeper, have irregular shapes, or are located in populated areas where minimizing surface disturbances is a priority.

5.) Cost Considerations:

  • Open-pit mining: Typically, open-pit mining is cheaper in terms of initial development costs and may be more cost-effective for mining shallow, horizontally extensive ore bodies.
  • Underground mining: Underground mining can be more costly due to the need for tunneling, ventilation, and support systems. However, it may be the only viable option for deep or irregularly shaped ore bodies.

Commodities that are mined through open pit mining and quarrying

Open pit mining is used to extract a variety of mineral resources that can be grouped as follows:

1.) Metals

Ferrous and ferroalloy metals

  • Iron: Iron is the most important metal in this category and is mainly used to make steel.
  • Manganese: Manganese is an important alloying element in steelmaking that improves hardness and toughness.
  • Chromium: Chromium is also used as an alloying element in steel production and increases corrosion resistance.
  • Molybdenum: Molybdenum is a transition metal used in alloys and catalysts. It is often extracted as a by-product of copper mining.
  • Tungsten: Tungsten is a very high melting point metal and is used for carbide tools, filaments, and other high-temperature applications.

Non-ferrous metals

  • Aluminum: Aluminum is a lightweight and corrosion-resistant metal that is used in many applications such as packaging, transportation, and construction. Bauxite, the most important aluminium ore, is mined in open-pit mining.
  • Copper: Copper is an excellent electrical conductor and is used in electrical engineering, electronics and construction.
  • Zinc: Zinc is mainly used to galvanize steel to prevent corrosion.
  • Lead: Lead is used in batteries, alloys and radiation protection.
  • Nickel: Nickel is a corrosion-resistant metal used in alloys, batteries, and catalytic converters.
  • Tin: Tin is used in alloys, solders, and coatings.
  • Titanium: Titanium is a light and strong metal used in the aerospace, medical technology and chemical industries. Illmenite is an important titanium ore.

Precious metals

  • Gold: Gold is a precious metal used in jewelry, electronics, and as a form of investment. It is known for its corrosion resistance and high value.
  • Silver: Silver is another precious metal used in jewelry, electronics, and photography. It is often extracted together with gold and copper in open-pit mining.
  • Platinum metals: Platinum metals include platinum, palladium, rhodium, ruthenium, iridium, and osmium. They are used in catalytic converters, jewelry and electronic components.

2.) Industrial minerals

  • Limestone: Limestone is a sedimentary rock used in the construction industry, cement production, and agriculture. Large open-pit mines and quarries are used to extract limestone.
  • Talc/Pyrophyllite: Talc and pyrophyllite are phyllosilicates used in various industries, including the paper, plastics and paints. industries.
  • Magnesite: Magnesite is a magnesium carbonate mineral used in the steel industry, cement industry, and chemical industry.
  • Bentonite: Bentonite is a swelling clay mineral used in the construction, cosmetics, and food industries.
  • Gypsum: Gypsum is a soft sulfate mineral used in the construction industry to make plasterboard and plaster.
  • Phosphates: Phosphates are also important raw materials for the production of fertilizers.
  • TiO2: Titanium dioxide is an important pigment used in paints, plastics, and paper.
  • Apatite: Apatite is a mineral used to make fertilizers.
  • Phosphates: Phosphates are also used as fertilizers.
  • Clays: Clays are used in the ceramics, brick and paper industries.

3.) Raw materials for construction

  • Sand and gravel: Aggregate for concrete and asphalt in road construction. Extraction ot the unconsolidated sedimentary rock takes place in sand and gravel pits, mostly obtained by wet extraction.
  • Sand, chippings an ballast: Aggregates produces by crushing solid rock. These products serve as the basis for road or railway construction, concrete and asphalt.

4.) Energy raw materials:

  • Coal: Coal is a fossil fuel used to generate electricity. Open-pit mining is a widely used method of coal mining, but it is increasingly criticized for its environmental impact.
  • Oil shale: Oil shale is a sedimentary rock that contains oil and can be mined in open-pit mining.
  • Uranium: Uranium is a radioactive element used as fuel in nuclear power plants. Uranium is also extracted in open-pit mining.

5.) Gemstones:

  • Diamonds: Often found in kimberlite pipes, which are accessed through open-pit mining.
  • Emeralds: Extracted from open-pit mines in countries like Colombia and Zambia.
  • Sapphires: Mined from open pits in places like Australia and Madagascar.
  • Rubies: Found in open-pit mines in countries such as Myanmar and Mozambique.
  • Opals: Mined from open pits in Australia, particularly in regions like Coober Pedy and Lightning Ridge.

6.) Other:

  • Dimension stone: Dimension stone refers to natural stones that are quarried in certain sizes and shapes for use in the construction industry, architecture and art. Examples of dimension stone include granite, marble, slate, limestone, and sandstone.
  • Asbestos: Asbestos is a fibrous mineral that was once used as a building material, but is now banned due to its carcinogenic effects.

Statistic on the extraction of raw materials

Raw materials extraction worldwide

The Wold Mining Data 1 publication provides comprehensive statistics on global mineral production, including data on commodities mined through open-pit mining and quarries. According to the latest edition, the report covers production figures for 65 mineral commodities from 168 countries. This includes detailed information on various types of minerals such as iron, copper, gold, and industrial minerals.

Key statistics on global mineral production from the "World Mining Data 2024" report, presented in tons per year:

1.) Metals

Iron and Ferro-Alloy Metals:

  • Iron Ore: Approximately 2.5 billion tons
  • Chromium: Around 40 million tons
  • Manganese: About 20 million tons
  • Nickel: Roughly 2.5 million tons

Non-Ferrous Metals:

  • Copper: Approximately 20 million tons
  • Aluminum (Bauxite): Around 370 million tons
  • Zinc: About 13 million tons
  • Lead: Roughly 5 million tons

Precious Metals:

  • Gold: Approximately 3,500 tons
  • Silver: Around 27,000 tons

2.) Industrial Minerals:

  • Limestone: Over 4 billion tons
  • Gypsum: Around 150 million tons
  • Potash: About 60 million tons

3.) Mineral Fuels:

  • Coal: Approximately 7.8 billion tons
  • Oil: Around 4.5 billion tons
  • Natural Gas: Roughly 3.9 trillion cubic meters (converted to tons for comparison)

The World Mining Production on minerals, considering the 3 previous main groups are approx. 18,7 bnt (billion metric tonnes).

Aggregates are not covered by the World Mining Data, but estimations are available from the 2.

Global aggregates production is estimated to approx. 40bnt (billion metric tonnes), produced in around 200,000 quarries and pits worldwide, estimated to employ up to 3.5 million people. The aggregates sector is by far the largest extractive industry globally in terms of its numbers of sites, production tonnages and people employed. Aggregates are the most consumed bulk product on the plante - over 5 tonnes (metric)/person/year) 2

The Overall World Mining Production in 2022 can be estimated to a total of approx. 58,7 bnt (billion metric tonnes).

Bergbau-Glossar

Die Geschichte des Bergbaus ist untrennbar mit seiner spezifischen Sprache verbunden. Eine technisch-wissenschaftliche Betrachtung des Bergbaus ist ohne die Verwendung und Kenntnis der Bergmannssprache und der bergbauspezifischen Begriffe schlichtweg unmöglich. Das Gleiche gilt für wirtschaftliche Betrachtungen, insbesondere die Kostenrechnung und die Bergbauökonomie. Dieses Glossar gibt einen Überblick über die wichtigsten Begriffe, die in diesem Buch verwendet werden. Es ist nach den behandelten Hauptthemen gegliedert.

Vielen Dank an Herrn Wenqing Wang für die Übersetzung ins Chinesische.

Mining methods

Surface mining methods are generally categorized into two broad groups based on the method of extraction:

  • Mechanical Extraction Methods
  • Aqueous Extraction Methods

Aqueous Extraction Methods involve water, or occasionally other liquids, to extract minerals.

Tabelle 1 Mining methods & Nomenclature
Englisch German Chinese
Aqueous extraction Nassabbau 水力采矿
Borehole extraction Bohrlochbergbau 钻爆法
Dimension stone quarrying Werksteingewinnung 料石开采
Dredging (Nass)baggergewinnung 采捞采矿
Gravel pit Kiesgrube 砾石采场
Leaching Laugungsbergbau 浸出
Mining methods Abbauverfahren 采矿方法
Mechanical extraction Mechanische Gewinnung 机械式开采
Open pit mining Tagebau 露天开采
Open cast mining Abbau oberflächennaher Flöze  
Placer mining Seifenabbau 砂矿淘采
Quarry Steinbruch 采石场
Sand and gravel pit Sand und Kiesgrube 沙石矿
Solution mining Lösungsbergbau 溶浸采矿
Strip mining Abbau oberflächennaher Flöze  
Surface mining Tagebau 露天开采
Surface mining methods Tagebauverfahren 露天采矿方法
     

Raw material & commodities

Tabelle 2 Raw material & commodities
English German Chinese
Aggregates Baurohstoffe / Zuschlagsstoffe 骨料
Ballast Schotter 碎石 / 道碴
Bank density Festgesteinsdichte 原位密度
Coal Kohle
Commodity; Raw materials Rohstoff 矿产资源
Fragmentation Korngrößenzusammensetzung 粒径分布
Gravel Kies 砾石
Industrial mineral Industrieminerale 工业矿物
Iron ore Eisenerz 铁矿石
Loose densitiy Schüttdichte 松散密度
Loose rock Lockergestein 松散岩石
Non-ferrous metall Nichteisenmetalle 有色金属
Ore Erz 矿石
Ore grade Erzgehalt 矿石品位
Platinum group metals (PGMs) Platingruppenmetalle (PGM) 铂族金属
Raw materials Rohstoffe 矿产资源
Rock density Gesteinsdichte 岩石密度
Sand Sand 沙子
Salt Salz 岩盐
Solid rock Festgestein 固体岩石 or 完整岩石
Technical parameters Technische Gesteinsparameter 岩石技术参数
     

Non-ferrous metalls are: copper, aluminum, zinc, nickel, lead, magnesium, gold, silver, … Platinum group metals (PGMs) are: rutenium, rhodizm, palladium, osmium, iridium, platinum

Mine & mine planning

Tabelle 3 Mine design & mine planning
English German Chinese
Angle of repose Natürlicher Böschungswinkel 安息角
Berm Berme 路堤
Bench Etage 台阶
Bench crest Etagenkante 台阶坡顶
Bench face Bruchwand o. Ortsbrust 台阶坡面
Bench toe Etagenfuß 台阶坡脚
Bench height Etagenhöhe 台阶高度
Bench slope angle Böschungsneigungswinkel 坡角
Drilling & Blasting Bohren & Sprengen 钻孔爆破
Final pit limit Abbauendzustand des Tagebaus 最终境界
Final pit slop Endböschung 最终境界
Haul roads Förderstrecken 运输路线
Haulage ramp Förderrampe 运输坡道
Mining phase Abbauphase 开采阶段
Mine planning Bergbauplanung 采矿规划
Mineral block model Blockmodell des Wertminerals 矿石块段模型
Reclamation Rekultivierung 复垦
Overall pit slope angle Generalneigung 最终边坡角
Overburden Abraum 覆土
Strip Mining Tagebau of oberflächennahe Flöze  
Stripping Ratio Abraumverhältnis 剥采比
Surface mine design Tagebauplanung 露天矿山规划
Survey Vermessung 勘测
Waste disposal Bergehalde 废石堆
     

Deposit & Geology

Tabelle 4 Deposit
English German Chinese
Core drilling Kernbohrung 岩心钻探
Deposit Lagerstätte 矿床
Exploration Exploration 勘探
Exploration permit Explorationsgenehmigung 探矿权 / 探矿许可证
Geology Geologie 地质
Geophysics Geophysik 地球物理
Ground penetration radar Bodenradar 探地雷达
Mining permit Abbaugenehmigung 采矿权 / 采矿许可证
Outcrops Ausbiss 矿体露头
Prospection Prospektion 勘察
Reserves Reserven 储量
Resources Ressourcen 资源
Stripping ratio Abraumverhältnis 剥采比
     

Rock mechanics

Tabelle 5 Rock mechanics
English German Chinese
Compressive strength Druckfestigkeit 抗压强度
Hard rock Hartgestein 抗压强度
Los-Angeles-value (LA) Los-Angeles-Wert 洛杉矶值
Polished stone value (PSV) Polierfaktor 石料磨光值
Rock Gestein 岩石
Rock mass Gebirgskörper, Gebirge 岩体
Rock mechanics Fels-, Gebirgsmechanik 岩石力学
Rock strength Gesteinsfestigkeit 岩石强度
Shear stength Scherfestigkeit 剪切强度
Soft rock Weichgestein 软岩
Tensile strength Zugfestigkeit 抗拉强度
     

Production factors

Tabelle 6 Production factors
English German Chinese
Production factor Produktionsfaktor 生产要素
     

Overburden removal

English German Chinese
Overburden Abraum 覆土
Stripping ratio Abraumverhältnis 剥采比
     

Drilling, Blasting & Explosives

Tabelle 7 Drilling & Blasting
English German Chinese
Back break   排后过爆
Bank angle Etagenneigungswinkel 坡角
Bank face Etagenwand 坡面
Bit Bohrkrone 钻头
Bench height Etagenhöhe 台阶高度
Burden Vorgabe  
Blast design Sprengplanung 爆破设计
Blasting Sprengen 爆破
Charge Ladung im Bohrloch 装药
Crest Kante 坡肩
Delay Verzögerung 延迟 / 延时
Detonating cord Sprengschnur 引爆索
Diameter Durchmesser 孔径
Down-the-whole drill rig Imlochhammer-Bohrgerät 潜孔锤钻机
Drilling Bohren 钻孔 / 钻进
Drill hole Bohrloch 炮孔
Drill hole inclination Bohrlochneigung 钻孔倾角 / 孔斜
Drill hole orientation Bohrlochausrichtung 钻孔方向 / 钻孔方位
Electric detonators Elektrische Zünder 电雷管
Electronic detonatos Elektronische Zünder 电子雷管
Explosives Sprengstoff 炸药
Explosive column height Ladehöhe 装药高度
Free face Freie Fläche 自由面
Floor   坡底面
Front burden   前排抵抗线
Detonator Zünder 雷管
Decking   炮孔堵口
Drill rig Bohrgerät 钻机
Drill bit Bohrkrone 钻头
Drill rod Bohrstange 钻杆
Hole diameter Bohrlochdurchmesser 孔径
Hole depth Bohrlochtiefe 孔深
Penetration rate Bohrgeschwindigkeit 钻速 / 进尺速度
Presplitting Vorspalten 预裂爆破
Rod Bohrstange 钻杆
Row Reihe
Side break   侧向过爆
Sub grade / Subdrilling Unterbohrung 孔底超深
Spacing Seitenabstand 孔间距
Stem height / Stemming Besatz o. Verdämmung 炮泥
Swell factor Auflockerungsfaktor 松散系数
Time delay Zeitverzögerung 延时
Toe Fuß 坡脚
Tophammer drill rig Außenhammer-Bohrmaschine 顶锤钻机
     

Extraction & Hauling

Tabelle 8 Extraction & Hauling
English German Chinese
Cutting Schneiden  
Cycle time Zyklen- o. Umlaufzeit 循环时间
Diggability Ladbarkeit  
Dumping Abladen 卸料
Dredging Greifbagger  
Excavation Abbau 开采 / 挖掘
Loading Laden 装载
Mechanical excavation Mechanischer Abbau 机械开采
Ripping Reißen 剥离
Solution mining Lösungsbergbau 溶浸采矿
     

Mobile machinery

Tabelle 9 Mobile machinery
English German Chinese
Availability Verfügbarkeit 可用性
Articulated truck Knickgelenkte Mulde 关节式自卸车
Bucket Radladerschaufel 轮式装载机铲斗
Bucket payload Schaufelkapazität 铲斗容量 / 斗容
Bucket fill factor Schaufelfüllfaktor 铲斗填充系数
Breakout force Ausbrechkraft 破碎力
Drill rig Bohrmaschine 钻机
Drive Fahren 驾驶
Cable shovel Seilbagger 绳索铲
Economic life Wirtschaftliche Lebensdauer 经济寿命
Excavator Kettenbagger 履带式挖掘机
Equipment availability Geräteverfügbarkeit 设备可用性
Fleet availability Flottenverfügbarkeit 车队可用性
Fleet management system (FMS) Flottenmanagementsystem 车队管理系统
Fleet probability Flottenwahrscheinlichkeit 车队概率
Front shovel Hochlöffelbagger 正铲挖掘机
Fuel consumption Treibstoffverbrauch 燃油消耗
Grader Grader 平地机
Gross weight Gesamtgewicht (brutto) 总重
Idle Leerlauf 怠速 / 闲置
Lubrication Schmiermittel 润滑 / 润滑剂
Maintenance Wartung 维修 / 保养
Mining fleet Bergbauflotte 矿山车队
Net weight Eigengewicht (netto) 自重
Payload Nutzlast (tara) 载重
OEM Original Equipment Manufacturer 原设备制造商
Operating weight Dienstgewicht 工作重量 / 运行重量
Performance Leistung 性能
Power consumption Leistungsaufnahme 功率消耗
Repair Reparatur 维修 / 维护
Rigid truck Starrrahmen Mulde 一体式自卸卡车
Road truck Straßen LKW 公路卡车
Rolling resistance Rollwiderstand 滚动阻力
Shovel Baggerlöffel 挖掘机铲斗
Spare parts Ersatzteile 备件
Telematics Telematik 远程信息处理系统
Truck SLKW > Schwerlast LKW 重型卡车
Weight Gewicht 重量
Wheel loader Radlader 轮式装载机
Working condition Einsatzbedingung 运行条件 / 工况
     

Mine infrastructure

Tabelle 10 Mine infrastructure
English German Chinese
Facilities Anlagen, Einrichtungen 设施和设备
Fuel station Tankstelle 加油站
Office Büro 办公室
Railway connection Bahnanschluss 铁路连接
Work shop Werkstätte 车间
     

Processing & stationary machinery

Tabelle 11 Processing & Stationary machinery
English German Chinese
Chamber press Filterkammerpresse 厢式压滤机
Cone crusher Kegelbrecher 圆锥破碎机
Control system Steuerungssystem 控制系统
Conveyor belt Förderband 传送带
Crusher Brecher 破碎机
Feeder (Material)Aufgabe 给料机
Flotation Flotation 浮选
Hopper Aufgabebunker 料斗
Impact crusher Prallmühle 反击式破碎机
Intermediate storage Zwischenlager 临时存放 / 中转存储
Jaw crusher Backenbrecher 颚式破碎机
Maintenance Wartung 维修
Mill Mühle 磨机
Rail line Eisenbahnlinie 铁路
Power control Leistungssteuerung 功率控制
Processing plant Aufbereitungsanlage 选矿厂
Repair Reparatur 维修 / 维护
Screen Sieb 筛子
Selection Selektion 分选
Sieving Sieben 筛分
Sortation Sortierung 分选
Stock pile Halde, Vorratslager 料堆
     

Personnel

Tabelle 12 Personnel
English German Chinese
Health & Safety Gesundheit & Sicherheit 健康与安全
Operators Bedienpersonal 操作人员
Skills Fähigkeiten 技能
Training Training 培训
Qualification Qualifikation 资质
Safety checks Sicherheitskontrollen 安全检查
Safety regulations Sicherheitsregeln 安全规定 / 安全章程
     

Environmental aspects

Tabelle 13 Environmental aspects
English German Chinese
Emissions Emissionen 排放 / 排放物
Dust control Staubschutz 粉尘控制
Neighbours Nachbarn 邻居
Light pollution Lichtverschmutzung 光污染
Noise Lärm 噪音
Particulate Matter (PM) 2,5 Feinstaub 2,5 µm PM2.5
Water tratement Wasseraufbereitung 水处理
     

Products & Sales

Tabelle 14 Products & Sales
English German Chinese
Customers Kunden 客户
Delivery range Lieferradius 交付范围
Ex works (EXW) Ab Werk 工厂交货
Delivered at place unloaded (DPU) Geliefert und am Bestimmungsort entladen 目的地卸货交货
Delivery note Lieferschein 交货单
Global market Weltmarkt 全球市场
Incoterms Vertragsformeln 国际贸易术语
Offer Angebot 报价
Order Bestellung 订单
Product heap Produkthaufen 产品堆
Product quality regulations Qualitätsbestimmungen des Produktes 产品质量规定
Sales Verkauf 销售
Transport Transport 运输
Regional market Regionaler Markt 区域市场
Weighbridge Brückenwaage 地磅
     

Economics & Cost calculation

Tabelle 15 Economics
English German Chinese
Break even point Rentabilitätsgrenze 盈亏平衡点 / 收支平衡点
Business accounting form Betriebsabrechnungsbogen (BAB) 业务会计表格
Business process Geschäftsprozess 业务流程
Contribution margin Deckungsbeitrag 贡献边际
Commodities Rohstoffe 商品
Cost centre Kostenstelle 成本中心
Cost type Kostenart 成本类型
Cost type group Kostenartengruppe 成本类型组
Cut off grade Abbauwürdigkeit 边界品位 / 入选品位
Depretiation time Abschreibungsdauer 折旧年限
Delivery Lieferung 交付
Delivery note Lieferschein 交货单
Direct cost Variable Kosten 直接成本 / 变动成本
Energy Energie 能源
Feasibility stucy Machbarkeitsstudie 可行性研究
Goods Güter 货物
Indirect cost Fixkosten 间接成本 / 固定成本
Invoice Rechnung 发票 / 收据
Means of production Produktionsmittel 生产资料
Offer Angebot 报价
Operating cost Betriebskosten 运营成本
Order Auftrag 订单
Order confirmation Auftragsbestätigung 订单确认
Performance Leistung 绩效 / 表现
Production costs Produktionskosten 生产成本
Production factors Produktionsfaktoren 生产要素
Profitability Rentabilität 盈利能力
Profit center Kostenstelle 利润中心
Product chain Produktkette 产品链
Sales proceeds Verkaufserlöse 销售收入
Selling price Verkaufspreis 销售价格
Services (Dienst)leistungen 服务
Stripping cost Abraumkosten 剥离成本
Valuation Bewertung 估价
Value chain Wertschöpfungskette 价值链
     

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Die folgenden Ressourcen verstehen sich als Präsentationsunterlagen zur Einführung in die Themen Tagebau, Tagebau- und Steinbruchprozesse sowie, Wirtschaft, Management, Automatisierung und Digitalisierung von Tagebaubetrieben.

1.) Bergbauprozesse mit Schwerpunkt auf mobilen Bergbaumaschinen und Digitalisierung (in englischer Sprache)

> Tackling complexity of mobile mining processes

2.) Bergbauprozesse und Führung von Tagebaubetrieben, Automatisierung von Teilprozessen und Büroautomation (in englischer Sprache)

> Management of an open-pit mine

3.) Tagebau und Steinbruchwirtschaft

> Open-pit mine & quarrying economics

> CAS - Cost Allocation Sheet

Impressum

Information und Offenlegung gemäß §5 (1) ECG, § 25 MedienG, § 63 GewO und § 14 UGB

Betreiber der Webseite: Dr.mont. Markus Häupl

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Fußnoten:

1

www.world-mining-data.info

2

www.gain.ie

Datum: 2025-01-11 Sa 07:00

Autor: Dr. Markus Häupl

Email: office@tagebau.at

Created: 2025-01-11 Sa 06:58

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