Green Low-Carbon Technology for Metalliferous Minerals
dc.contributor.editor | Guo, Lijie | |
dc.date.accessioned | 2022-12-06T16:10:17Z | |
dc.date.available | 2022-12-06T16:10:17Z | |
dc.date.issued | 2022 | |
dc.identifier | ONIX_20221206_9783036557977_54 | |
dc.identifier.uri | https://directory.doabooks.org/handle/20.500.12854/94531 | |
dc.description.abstract | Metalliferous minerals play a central role in the global economy. They will continue to provide the raw materials we need for industrial processes. Significant challenges will likely emerge if the climate-driven green and low-carbon development transition of metalliferous mineral exploitation is not managed responsibly and sustainably. Green low-carbon technology is vital to promote the development of metalliferous mineral resources shifting from extensive and destructive mining to clean and energy-saving mining in future decades. Global mining scientists and engineers have conducted a lot of research in related fields, such as green mining, ecological mining, energy-saving mining, and mining solid waste recycling, and have achieved a great deal of innovative progress and achievements. This Special Issue intends to collect the latest developments in the green low-carbon mining field, written by well-known researchers who have contributed to the innovation of new technologies, process optimization methods, or energy-saving techniques in metalliferous minerals development. | |
dc.language | English | |
dc.subject.classification | bic Book Industry Communication::T Technology, engineering, agriculture::TB Technology: general issues | |
dc.subject.classification | bic Book Industry Communication::T Technology, engineering, agriculture::TB Technology: general issues::TBX History of engineering & technology | |
dc.subject.classification | bic Book Industry Communication::T Technology, engineering, agriculture::TT Other technologies & applied sciences::TTU Mining technology & engineering | |
dc.subject.other | metallurgical slag-based binders | |
dc.subject.other | solidification/stabilisation | |
dc.subject.other | As(III) | |
dc.subject.other | As(V) | |
dc.subject.other | calcium hydroxide | |
dc.subject.other | sublevel caving | |
dc.subject.other | numerical simulation | |
dc.subject.other | physical model | |
dc.subject.other | structural parameter | |
dc.subject.other | green mining | |
dc.subject.other | limestone | |
dc.subject.other | high temperature | |
dc.subject.other | confining pressure | |
dc.subject.other | SHPB | |
dc.subject.other | constitutive model | |
dc.subject.other | open-pit mine | |
dc.subject.other | PLAXIS 3D | |
dc.subject.other | dynamic load | |
dc.subject.other | safety factor | |
dc.subject.other | acceleration | |
dc.subject.other | particle sedimentation | |
dc.subject.other | filling mining | |
dc.subject.other | degree of influence | |
dc.subject.other | pipeline transportation | |
dc.subject.other | solid waste utilization | |
dc.subject.other | tailings | |
dc.subject.other | reclamation risk | |
dc.subject.other | hazard identification | |
dc.subject.other | complex network | |
dc.subject.other | hazard management | |
dc.subject.other | digital mine | |
dc.subject.other | mine short-term production planning | |
dc.subject.other | haulage equipment dispatch plan | |
dc.subject.other | ABCA | |
dc.subject.other | NSGA | |
dc.subject.other | settlement velocity measurement | |
dc.subject.other | K-means | |
dc.subject.other | tailings backfill | |
dc.subject.other | unsupervised learning | |
dc.subject.other | cemented paste backfill | |
dc.subject.other | ESEM | |
dc.subject.other | picture processing | |
dc.subject.other | floc networks | |
dc.subject.other | pumping agent | |
dc.subject.other | fractal dimension | |
dc.subject.other | backfill slurry | |
dc.subject.other | strength of cemented backfill | |
dc.subject.other | inhomogeneity of cemented backfill | |
dc.subject.other | cemented tailings backfill | |
dc.subject.other | copper | |
dc.subject.other | zinc | |
dc.subject.other | recovery | |
dc.subject.other | sulfide concentrate | |
dc.subject.other | artificial microbial community | |
dc.subject.other | granular backfill | |
dc.subject.other | bearing characteristics | |
dc.subject.other | numerical model | |
dc.subject.other | particle size | |
dc.subject.other | surface subsidence | |
dc.subject.other | blasting dust movement | |
dc.subject.other | dust concentration | |
dc.subject.other | particle size distribution | |
dc.subject.other | blasting dust reduction | |
dc.subject.other | backfill | |
dc.subject.other | metal mine | |
dc.subject.other | log-sigmoid | |
dc.subject.other | tailings pond | |
dc.subject.other | regional distribution | |
dc.subject.other | dam break | |
dc.subject.other | accident statistics | |
dc.subject.other | causation analysis | |
dc.subject.other | backfilling | |
dc.subject.other | increasing resistance and reducing pressure | |
dc.subject.other | computational fluid dynamics | |
dc.subject.other | spiral pipe | |
dc.subject.other | stowing gradient | |
dc.subject.other | coal-based solid waste | |
dc.subject.other | orthogonal experiment | |
dc.subject.other | strength development | |
dc.subject.other | regression analysis | |
dc.subject.other | engineering performance | |
dc.subject.other | n/a | |
dc.title | Green Low-Carbon Technology for Metalliferous Minerals | |
dc.type | book | |
oapen.identifier.doi | 10.3390/books978-3-0365-5798-4 | |
oapen.relation.isPublishedBy | 46cabcaa-dd94-4bfe-87b4-55023c1b36d0 | |
oapen.relation.isbn | 9783036557977 | |
oapen.relation.isbn | 9783036557984 | |
oapen.pages | 292 | |
oapen.place.publication | Basel |
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