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  3. Mining Engineering
  4. 2000
  1. Home
  2. Journals
  3. Mining Engineering
  4. 2000
Showing papers in "Mining Engineering in 2000"
Journal Article•
Development and scale-up of large flotation cells

[...]

Nathaniel Arbiter
01 Mar 2000-Mining Engineering

35 citations

Journal Article•
Analytical method for predicting filling rates of mining pit lakes: example from the Getchell Mine, Nevada

[...]

L. Shevenell
01 Mar 2000-Mining Engineering

20 citations

Journal Article•
Silica collection concerns when using flooded-bed scrubbers

[...]

J.F. Colinet, R.A. Jankowski
01 Apr 2000-Mining Engineering

14 citations

Journal Article•
Mine-shaft conveyance monitoring

[...]

M.J. Beus, T.M. Ruff, S. Iverson, W.G. McCoy
01 Oct 2000-Mining Engineering

14 citations

Journal Article•
Expanding role of microbiology in metallurgical processes

[...]

James A. Brierley
01 Nov 2000-Mining Engineering

12 citations

Journal Article•
Estimation of diesel particulate concentrations in underground mines

[...]

R.A. Haney, G.P. Saseen
01 Apr 2000-Mining Engineering
TL;DR: The Mine Safety and Health Administration (MSHA) developed a model to estimate diesel particulate exposures in underground mines by applying standard engineering principles of ventilation, control technology and work cycle.
Abstract: The Mine Safety and Health Administration has developed a model to estimate diesel particulate (dp) exposures in underground mines. The estimate uses either in-mine measured dp concentrations or engine manufacturers’ standardized emission data and through a series of calculations estimates full shift dp concentrations by applying standard engineering principles of ventilation, control technology and work cycle. This model, in the form of a computer spreadsheet, provides the mining industry with a method to estimate diesel particulate levels and determine the impact of various diesel particulate controls on occupational exposure to dp in underground mines. A detailed description of the estimator and several examples demonstrating the results are provided.

11 citations

Journal Article•
Georgia kaolin; development of a leading industrial mineral

[...]

R. J. Pruett
08 Mar 2000-Mining Engineering

9 citations

Journal Article•
Using passive treatment systems for mine closure -- a good approach or a risky alternative?

[...]

P. Eger, G. Melchert, J. Wagner
01 Sep 2000-Mining Engineering

7 citations

Journal Article•
Update on face-ventilation research for improved longwall-dust control

[...]

R.A. Jankowskit, J.F. Colinet
01 Mar 2000-Mining Engineering
TL;DR: In this article, the authors examined several basic principles of the longwall face-ventilation system and evaluated the effectiveness of numerous improved face ventilation techniques for longwall mining systems, including identifying improved techniques for measuring face ventilation parameters and investigating the fundamental relationship between face airflow and the entrainment and dilution of respirable coal mine dust.
Abstract: The Dust and Toxic Substances Control Branch, National Institute for Occupational Safety and Health, Pittsburgh Research Laboratory, examined several basic principles of the longwall face-ventilation system and has evaluated the effectiveness of numerous improved face-ventilation techniques for longwall mining systems. These include identifying improved techniques for measuring face-ventilation parameters on longwall mining sections and investigating the fundamental relationship between face airflow and the entrainment and dilution of respirable coal mine dust. Studies have been completed to determine the impact on face dust levels of using belt entry air to ventilate the longwall. Novel methods have been identified to increase the face air-flow and to manage face airflow to effectively minimize dust exposure to face workers. Unique systems of auxiliary face ventilation have been developed and evaluated at full-scale, simulated longwall test facilities. The theoretical and applied aspects of each of these principles and technologies are discussed. Application of these results throughout the longwall mining industry, as documented from surveys conducted in the early 1980s and 1990s, have reduced the health hazard associated with excessive exposure to respirable coal mine dust. 14 refs., 5 figs., 2 tabs.

7 citations

Journal Article•
Bit geometry effects on failure characteristics of rock

[...]

V.B. Achanti, A. W. Khair
01 Jun 2000-Mining Engineering

6 citations

Journal Article•
Tailings dam failures -- Why do they continue to occur?

[...]

D.R. East
01 Dec 2000-Mining Engineering
Journal Article•
Systems approach to grinding improvements at the Tilden concentrator

[...]

R.E. Mclvor, T.P. Weldum, B.J. Mahoski, R.S. Rasmussen
01 Feb 2000-Mining Engineering
Journal Article•
Probabilistic quatification of uncertainty in predicting mine pit-lake water quality

[...]

J.H. Kempton, W. Locke, D. Atkins, Andrew Nicholson
01 Oct 2000-Mining Engineering
Journal Article•
Parametric analysis in surface-mine reserve definition: the inherent error and its correction

[...]

M. Lemieux
01 Aug 2000-Mining Engineering
Journal Article•
Effect of additives on drilling in hard rock

[...]

H. El-Shall, R. Haecker, Ponisseril Somasundaran, S. Gupta
01 Jan 2000-Mining Engineering
Journal Article•
Common clay and shale

[...]

Robert L. Virta
01 Jan 2000-Mining Engineering
Journal Article•
Cover system to mitigate ARD in an arid climate -- steup of field test plots at BHP Iron Ore's Mt. Whaleback operation

[...]

M. O'Kane, D. Porterfield, M. Endersby, Haug
01 Feb 2000-Mining Engineering
Journal Article•
Using diagnostic process analysis to improve cash flow at Newmont's Carlin Mill #4

[...]

M. Brittan, B. Arthur
01 Jan 2000-Mining Engineering
Journal Article•
Environmental benefits of using clay granules in pesticide applications

[...]

D.R. Taylor, R.G. Goss
01 Nov 2000-Mining Engineering
Journal Article•
Industrial minerals 1999

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Aldo F. Barsotti, David E. Morse
01 Jan 2000-Mining Engineering
Journal Article•
Internal rate of return (IRR) -- a flawed and dysfunctional project-evaluation criterion

[...]

M.M. Hajdasinski
01 Aug 2000-Mining Engineering
Journal Article•
Rethinking the use of new technology to improve operational performance

[...]

B. Cavender
01 Dec 2000-Mining Engineering
Journal Article•
Integrated bioreactor system for the treatment of cyanide, metals and nitrates in mine process water

[...]

M. Canty, R. Hiebert, L. Thompson, P. Clark, S. Beckman 
01 Sep 2000-Mining Engineering
Journal Article•
Surface mine reserve definition and the high-grading fallacy

[...]

M. Lemieux
01 Feb 2000-Mining Engineering
Journal Article•
Deep cut: ground control and worker safety in coal mines

[...]

E.R. Bauer, C.J. Bise
01 Jun 2000-Mining Engineering
Journal Article•
Bulk sorting by LIF: quality control of ores for bulk sorting and blending by laser-induced fluorescence analysis

[...]

H.F. Broicher
01 Sep 2000-Mining Engineering
Journal Article•
Long-term subsidence associated with longwall mining -- its causes, development and magnitude

[...]

Y. Luo, S.S. Peng
01 Oct 2000-Mining Engineering
TL;DR: In this article, the authors present some results obtained from research on long-term subsidence over and near chain pillar systems -the area available to long-time subsidence in longwall operations.
Abstract: This paper presents some results obtained from research on long-term subsidence over and near chain pillar systems - the area available to long-term subsidence in longwall operations. Information was collected from operation in Pittsburgh, Herrin No. 6 and Pratt seams in the USA. Although the long-term subsidence for most longwall operations is insignificant, it does exist in some cases. In the cases that showed significant long-term subsidence, it was found that the development process could be expressed by an exponential decaying function. The stability factor of the chain pillar system and the potential for long-term subsidence are the two most important factors that control the magnitude and development characteristics of the long-term subsidence process. 6 refs., 6 figs., 1 tab.

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