Welcome to the Industrial Automation website!

NameDescriptionContent
XING-Automation
E-mail  
Password  
  
Forgot password?
  Register
当前位置:

Scientific and technological innovation promotes the high-quality development of mining industry

F: | Au:佚名 | DA:2023-11-27 | 816 Br: | 🔊 点击朗读正文 ❚❚ ▶ | Share:

1. The Fourth Industrial Revolution drives the transformation of the entire mining value chain

According to McKinsey, artificial intelligence (AI), robotics, the Internet of Things, autonomous vehicles, 3D printing, nanotechnology, biotechnology, materials science, energy storage, and quantum computing are key elements of the fourth Industrial Revolution. All of these factors have the potential to completely "disrupt" traditional manufacturing, thereby blurring the lines between the physical, digital, and biological realms. However, the Fourth Industrial Revolution is generally driven by three major technological trends: connectivity, intelligence, and flexible automation.

The fourth Industrial revolution in manufacturing remains a top priority for many leaders in both the private and public sectors. This is having a hugely disruptive impact on value chains, industries, and operating models, representing the next generation engine of economic development and opening up opportunities for value capture in ways not seen in the past industrial revolution.

The boom in technological innovation is occurring not only in mining companies, but also in other industries around the world, and what they have in common is digitization. While there are many different definitions associated with digitization, it is essentially about increasing access to and processing of real-time data on all aspects of today's world.

Digitalisation is being achieved through higher processing power, stronger and faster networks, better sensors (including GPS, radar and lidar), and improved software and algorithms. Digitization ensures the analysis and understanding of the data and allows feedback within the system (manual, automated or artificial intelligence), using real-time data for immediate visualization, control and optimization of commercial operations, applied to all aspects of mine operations.

Many believe that it is no longer technology that stands in the way of digital transformation, but rather the ability to organize an increasingly advanced and changing environment, sometimes also depending on cost. In order to succeed in operations and in the application of digital technologies, technological innovation in the mining equipment, technology and service industries must be robust, sustained and cost-effective. In addition, the interface with management must be functional and simple.

In November 2015, the consulting firm McKinsey & Company estimated that the potential economic impact of digitization of mines could reach $370 billion by 2025 through increased capacity, reduced waste and improved safety. Of this, $250 billion comes from a deeper understanding of the resource base, optimization of material and equipment flows, increased mechanization based on automation, and real-time monitoring of performance under the program.

In January 2017, a study by the World Economic Forum in collaboration with Accenture suggested that the mining industry could save $428 billion by 2025. The largest sources are expected to be integrated procurement, data exchange, and trade, followed by wearables ($85 billion), remote operations centers ($84 billion), and automated operations and robotics ($56 billion). They believe it will reduce the workforce by almost 5 per cent.

According to Accenture, cognitive networking is the next generation of technology being adopted by all industries worldwide. The analysis of unstructured data enables machines to think and act like humans, driving a real transformation of the entire mining value chain. The use of artificial intelligence will provide a path for human-computer interaction and the creation of an environment with self-improvement, self-learning, self-healing and self-control, which is also the development goal of future mines.

2. Scientific and technological innovation leads the mining industry into the 4.0 era

The mining industry has made very few major technological breakthroughs in recent decades. In mineral processing, major technological breakthroughs are still 100 years ago flotation technology and 50 years ago solvent extraction technology. In mining, revolutionary developments included the invention of explosives, the introduction of carbide drills, the adoption of underground large-scale mining methods, and the upgrading of open-pit mining equipment. Despite the lack of major technological breakthroughs, mining today is safer, more efficient, and "greener" than it was 25 years ago, thanks to the continuous upgrading of production systems. The main trends include: first, the continuous mechanization of mines; Second, the establishment of maintenance, management and supply systems; The optimization software of geology and engineering technology; Fourth, the expansion of the scale of mines and mineral processing plants; Fifth, the extensive application of information technology in process control has realized the connection between mining and mineral processing. The Fourth Industrial Revolution is no longer a gradual process of improvement, but a step change.

2.1 Digital mine is the future development direction

At present, digital technology has been used to different degrees in different environments of mines. While digital technologies are still being perfected, they are already widely used and starting to integrate into value chains. The success of mining companies is not only the adoption of the latest applications and technologies, but more importantly, the integration of digital and innovative ideas into their business strategy.

Rio Tinto, one of the pioneers in the mining industry, launched the Mine of the Future initiative in 2008. The plan is to harvest minerals from deep within the Earth while reducing environmental impact and further improving safety. In 2010, Boliden, Poland's KGHM Mining company, Sweden's LKAB Mining company and several global suppliers and academic institutions launched a conceptual study on a shared vision for the future of mines. In 2018, Anglo American launched the "Smart Mine of the Future" program, and many other mining companies have also begun informal activities and programs.

Nick Holland, CEO of South Africa's Gold Fields, has spoken for several years about the future of mines, including in 2018 about the need for mining companies to "embrace" technology as it becomes harder and longer to find and develop mines and as ore grades decline. He believes that technological innovation is like a tsunami for the mining industry, and "you" may "ride the wave" or "be washed away by the wave." Goldfield's goal is to achieve full remote control of open or underground mines by 2028. He believes that collaboration with technology companies will provide solutions to achieve the goal.

Australia's Resolute Mining has built the highly automated Syama underground gold mine in Mali based on the Future Mine concept, which began production in December 2018. Mine design requires the use of the best mining, transportation and processing technology, and allows operators to install advanced mobile equipment monitoring and control systems, and these technologies will gradually be integrated into the entire mine application, which helps to improve mine safety and productivity.

A video from ABB showcases their vision for future mine concepts, including digital twin technology. The group plans to develop digital technologies for future mining at its collaborative operations center in Stross, Sweden. GE Digital has also given a view on digital mining, combining its Predix platform to build an industrial Internet to connect all mining assets to reduce unplanned downtime, optimize operations, and ensure proactive processes.

Rio Tinto has introduced digital twin technology at its Koodaideri mine in Western Australia, which uses acquired plant design, construction, commissioning and operational data to build a digital factory to improve real-time decision making.

Accenture believes that digital mining is the use of the best digital technology, the Internet of things and cloud or on-premise platform (on-premise platform) to connect the mining value chain from the mine to the market and sensors to the board meeting. Consolidate data from isolated databases such as fleet management, scheduling, historical development, and enterprise resource planning solutions. The use of a unified and effective analytical method to achieve operational intelligence and trend analysis, comprehensive visualization on tablets, remote control of smart devices, etc., which allows users to better plan business development according to customers and market conditions, understand business operations, and increase production capacity.

The mining industry is still in the early stages of digital transformation, and while the pace of progress is still slow, mining executives are beginning to realize that productivity can be improved through data visualization and the application of new technologies across the entire data chain.

2.2 Digitization will revolutionize the mining industry

The World Economic Forum report pointed out that the continuous reduction of the cost of technology has accelerated the pace of social development, and the comprehensive use of digital technologies can ensure that these technologies can play the best role. The adoption of new technologies that enhance mine profitability and sustainability has a significant impact on the mining industry in crisis, but new technologies must be adopted in an effective and sustainable way in order to realize value, industry experts said.

Rio Tinto Group CEO Jean-Sebastian Jacque said digitization will revolutionize the mining industry. New digital technologies, from artificial intelligence to the Internet of Things, as well as new biotechnologies, will enable management to become more creative. In marketing and trade, digital, big data and blockchain technologies will play an important role in helping users - from governments to consumers - verify the ethics and value of all products and their environmental credentials.

Boston Consulting Group believes that the further development of emerging digital technologies will revolutionize the mining industry in ways that are almost unimaginable. Among them, drones are used for in-situ observation, genetically modified bacteria or nanorobots are used for mining at the molecular level, deep-water robots are used for underwater mining, big data and algorithms are used for end-to-end tracking and communication and real-time supply and demand management. These new technologies could in the future disrupt existing business models and traditional roles and relationships between mining companies and users, suppliers and competitors.

3. Technological innovation is the key to the rapid development of mining enterprises

Mining companies are gradually adjusting their strategies and business models, including making technological innovation the cornerstone of their growth strategies. At present, the key innovation that can make a step change in mine operational capacity is the adoption of digital technology.

Some companies have proposed the "mine of the future" concept for decades and have developed, tested and applied new digital technologies. However, there are still some enterprises have not moved, affecting the realization of the "future mine" process.

3.1 The technological innovation "leader" will gain a competitive advantage

McKinsey analysis shows that the application of AI in the mining industry will bring a cumulative 122% cash flow change for technological innovation "front-runners" and only 10% cash flow change for "followers".

The "front-runner" will have an initial competitive advantage, bringing their cost curve down and giving them an edge over competitors, such as higher margins and market value. It can be said that the entire industry will deeply realize that digital technology will be a cost reduction factor, which can bring the cost curve down across the industry and ultimately keep mineral prices lower.

It is clear that the key to the long-term development of mining companies is to stay ahead in innovation. To be clear, digital accessibility is "open" to businesses or operators of all sizes, as well as smes, and will not be exclusive to developed economies.

3.2 Technological innovation makes the mining industry better, faster and more efficient

Rio Tinto, one of the pioneers in the mining industry, launched the Mine of the Future initiative in 2008 to find advanced ways to extract minerals while reducing environmental impact and further improving safety. The concept sounds broad, but as one of the industry's leaders in technological innovation, they have focused on four main areas in recent years: autonomous truck haulage system, automated drill system system, its automated rail (track) transport system from mine to port (AutoHaul), and its remote operations center in Perth, Australia. Rio Tinto put its first driverless rail system into operation in late 2018, achieving the development goals in these four areas. Chris Salisbury, Chief Executive Officer of Rio Tinto Iron Ore, said: "The opening of a pioneering laboratory in Brisbane, Australia, will help deliver the Rio 4.0 concept and ultimately make the mining industry better, faster and more efficient.

3.3 Many mining enterprises implement technological innovation strategies

Although BHP Billiton (BHP) has not announced a formal plan for its stock holders, its technology strategy is focused on integration. Their integration strategy is to connect everything by 2025 to create a "bridge" between the present and the future, as well as to lay the foundation for fully integrated and highly automated operations.

BHP Billiton has globalised technology development and now applies R&D, solution execution and technology operations across the value chain. The company is applying a "systems engineering" approach to analyze the mine life cycle in conjunction with its assets to identify constraints and optimize investments. This facilitates the rapid replication of best practices throughout the company's operations.

An important pillar of BHP's technology strategy is to build an ecosystem of partnerships with established and new companies, many from original equipment manufacturers. These partnerships give BHP access to leading technology and external talent to help it find solutions to complex problems. BHP Billiton has invested in partnerships with universities, including a $3 million donation to a consortium of the University of Melbourne, Stanford University and the University of Cambridge to draw global attention to CO2 storage and support the establishment of future large-scale carbon capture and storage projects.

In Canada, Teck Resources has four research and development centers covering different technology development and innovation efforts, including the evaluation of the effectiveness of current technologies and the development of new breakthrough technologies. Teck Resources' technology innovation is focused on four main areas - safety, sustainability, capacity and growth - which will be supported by the ongoing digitization of operations.

Teck Resources has established strategic partnerships with regional and global companies to develop and apply pioneering technologies such as open source fleet management systems, the first electric semi-automatic drilling system, virtual reality mines, and the first shovel ore sorting technology. At the same time, Teck Resources has formed a dedicated interdisciplinary field team to examine and promote opportunities for the development and innovation of new technologies, which contributes to the analysis of the benefits of new technologies and the planning of technology testing, validation and demonstration.

In 2017, the company began implementing a new technology innovation strategy aimed at modernizing, integrating and optimizing existing systems and processes. Once this is achieved, the company will consider a more comprehensive push towards full automation of mines. The ultimate goal of the strategy is to build Goldfield's mines of the future, which will be based on automation, integrated digital data platforms, remote machine operations, virtual reality, and reduced mining waste (tailings). In addition, partnerships with industry-leading information technology companies and Oems will be critical to the successful implementation of the strategy.


  • Sigmatek MDD111-1 DIAS Drive Axis Module
  • Sigmatek DKL042 05-024-042 Terminal Module
  • Sigmatek DM822 Control Module
  • Sigmatek CDM167 12-008-167-O Module
  • Sigmatek TAE151 Touch Display Unit
  • Sigmatek DCC041 SLIDES Module 05-700-041-D
  • Sigmatek AKM65M-ANC2GBB0 PM Servo Motor
  • Sigmatek ETT221 01-230-221 Operator Terminal
  • Sigmatek SLIDES DAM 124 Analog Module
  • Sigmatek AKM31C-ANCNGBB0 Servo Motor
  • Mannesmann Demag Sigmatek CP626 Central Unit
  • SIGMATEK 0332.554.03 Board 371071000154
  • SIGMATEK 12-250-021 Base Plate Back Panel CM5V020
  • SIGMATEK DM162 S-DIAS Digital Mix Module
  • DEMAG ERGOTECH 061 381 66 Sigmatek 9842.243.02 Circuit Board
  • SIGMATEK CP313-1 PLC Module
  • Sigmatek ETV0551-2 VARAN Touch Terminal
  • Sigmatek SDM 081 FS S-Dias Safety Module
  • DEMAG 05-250-023 Ergotech Motherboard with Sigmatek TMS012
  • Sigmatek CM5V020 12-250-023-K Wiring Base
  • Sigma Tek 5000B-37 Attitude Gyro Indicator
  • Sigmatek SDD120-2 DIAS Drive
  • Sigmatek CME221 Memory Module
  • Sigmatek DCP640 DIAS Central Unit
  • Sigmatek STO040 Safety Output Module
  • Sigmatek CET281 Control Panel
  • Sigmatek CIPC LX800 Demag NC5 CPU
  • Sigmatek DKL093 05-024-093 Terminal Module
  • Sigmatek AI088 20-009-088 Analog Input Module
  • Sigmatek CAI888 Analog Input Module
  • SIGMATEK CCA021 12-025-021 Analog Output Module
  • SIGMATEK 1104.579.05 Control Module
  • SIGMATEK SDI100 Digital Input Module
  • SIGMATEK C-IPC 256MB LX800 Compact Dias
  • SIGMATEK 9423.090.02 Control Module
  • SIGMATEK C-IPC 256 Power Supply 148498
  • SIGMATEK CAI025 Analog Input Module
  • SIGMATEK CTO166 Digital Output Module
  • SIGMATEK CP112 20-004-112 Processor Module
  • SIGMATEK CAI887 12-009-887 Safety Module
  • Sigma-Tek 4000B-31 Directional Gyro 1U262-002-42
  • Sigmatek C-IPC 256MB LX800 IPC Controller
  • Sigmatek C-IPC 01-450-031 Industrial PC LX800
  • Sigmatek C-IPC 256 Industrial PC Controller
  • Sigmatek CCP-531 PLC Processor Module
  • Sigmatek CDI163 Digital Input Module
  • Sigmatek ETV0501 VARAN Terminal 12-230-0501
  • Sigmatek CTMS020 C-DIAS Technology Module
  • Sigmatek CIV512 VARAN Switch Module
  • Sigmatek HU011 20-080-011 Interface Module
  • SIGMATEK SLIDES DAM 124 Module
  • SIGMATEK C-IPC 161 01-450-161L Industrial PC
  • SIGMATEK C-IPC 128MB VIA 733MHz 01-450-024-K
  • SIGMATEK 12-780-012 R8-IPC Geode LX800 Module
  • SIGMATEK CAM124 Analog Module
  • SIGMATEK S1 032-8AF61-R4 EZ Servo Motor
  • SIGMATEK CTO163 Digital Output Module
  • SIGMATEK CCP082 12-004-082 Processor Module
  • SIGMATEK CRCH081 C-DIAS Temperature Module
  • SIGMATEK PC322-K 01-310-322-K Industrial PC
  • SIGMATEK SDD310-2 Servo Drive
  • SIGMATEK AI084 Analog Input Module
  • SIGMATEK CRCH081 12-752-081 Temperature Module
  • Sigma-Tek 5000L-4 Attitude Gyro 1U284-001-3
  • SIGMATEK CM5V020 12-250-023-K Wiring Module
  • Sigma-Tek 4000H-6 Directional Gyro IU262-035-7
  • SIGMATEK Dias DCP160 05-004-160 Processor Module
  • SIGMATEK 0147.395.02 Control Module
  • SIGMATEK A1084 Control Module
  • SIGMATEK DI200 20-006-2000 Digital Input Module
  • Sigmatek DNC115 Encoder Module
  • Sigmatek DAM122 05-017-122 Analog Module
  • Sigmatek 9802.289.01 Control Board TA71 Display
  • Sigmatek TO127 20-007-127 Digital Output Module
  • Sigmatek DNC031 05-011-031 Digital Module
  • Sigmatek VI022 20-003-022 Interface Module
  • Sigmatek CAI085 Analog Input Module
  • Sigmatek CP111 S-DIAS CPU Module
  • Sigmatek CTMS030 Krauss Maffei Module
  • Sigmatek CAM123 Control Module
  • Sigmatek TAE732-P 01-240-732-P Touch Display Unit
  • Sigmatek MDM021 Digital Mixed Module
  • Sigmatek DCP642 DIAS Central Unit
  • Sigmatek CST022 12-014-022 C-DIAS Module
  • Sigmatek SRO021 20-893-021 Safety Relay Output
  • Krauss Maffei MC5 Control System Sigmatek
  • Sigmatek DC061 Module 18-24VDC 300mA
  • Herrmann EVT0855 Ultrasonic Welder Touch Panel
  • Sigmatek CIV521 Control Module 1.4A 2W
  • Sigmatek DDI61 05-006-161 Digital Input Module
  • SIGMATEK ETT312-E Touch Terminal 01-230-312
  • Cessna S3326-1 Sigma Tek 5000B-67 Gyro 1U149-015-9
  • SIGMATEK PS101 Power Supply Module
  • SIGMATEK 0332.554.03 Control Module 371071000154
  • SIGMATEK ETT312-E Touch Terminal 01-230-312
  • SIGMATEK CDM163 Control Module
  • SIGMATEK VSV046 16-023-046 Module
  • SIGMATEK AM221 20-017-221 Analog Module
  • SIGMATEK CTS051 12-053-051 Control Module
  • SIGMATEK AM221 20-017-221 Analog Module
  • Sigmatek CSDI161 12-891-161 Safety Input Module
  • Sigma Tek 4000C-1 Directional Gyro Indicator
  • Sigmatek ETV0501 12-230-0501 VARAN Terminal
  • Sigmatek DDM165 SLIDES Module
  • Sigmatek N100 20-011-100 Control Module
  • Sigmatek AKM54K-ANC2R-B0 PM Servo Motor
  • Sigmatek CTO166 Digital Output Module
  • Sigmatek CP212-K 20-004-212-K CPU Module
  • Sigmatek CDI161 Digital Input Module
  • Sigmatek DCC080 05-700-080-2 Control Module
  • SIGMATEK SCP011 S-DIAS Safety CPU
  • SIGMATEK SCP011 S-DIAS Safety CPU
  • SIGMATEK SRO022 Relay Output Module
  • SIGMATEK MDD 121 Drive Axis Module
  • SIGMATEK DSI021 SLIDES Siemens Interface
  • SIGMATEK DIAS DCP161 Module 05-004-161
  • Sigmatek ETT312 Built-in Touch Terminal
  • SIGMATEK DCP 643 DIAS Controller System
  • SIGMATEK CIO021 Multi I/O Module
  • SIGMATEK CTMS020 Control Module
  • Sigmatek CME 221 Memory Module
  • Sigmatek 0420.615.01 Control Board
  • Sigmatek CP111 20-004-111 CPU Module
  • Sigmatek 9405.065.03 Control Board
  • Sigmatek ETEK 01-450-032-K C-IPC 256MB Industrial PC
  • Sigmatek CTO163 12-007-163 Safety Output Module
  • Sigmatek TO081 20-007-081 Digital Output Module
  • Sigmatek SI021 20-022-021 Safety Input Module