Jump to navigation

The University of Arizona Wordmark Line Logo White
UA Profiles | Home
  • Phonebook
  • Edit My Profile
  • Feedback

Profiles search form

Angelina Anani

  • Associate Professor, Mining and Geological Engineering
  • Member of the Graduate Faculty
  • Associate Professor, Applied Mathematics - GIDP
Contact
  • (520) 621-6063
  • Mines And Metallurgy, Rm. 141
  • Tucson, AZ 85721
  • angelinaanani@arizona.edu
  • Bio
  • Interests
  • Courses
  • Scholarly Contributions

Biography

Dr. Angelina Anani is an associate professor in the School of Mining Engineering and Mineral Resources at the University of Arizona. She earned both her B.S. (Summa Cum Laude) and Ph.D. in Mining Engineering from the Missouri University of Science and Technology. With over a decade of research and teaching experience, Dr. Anani specializes in mine planning, mine safety, and the modeling and optimization of mining systems, focusing on sustainability and efficiency. Dr. Anani’s work integrates advanced computational techniques with sustainable mining practices to address key industry challenges. She develops algorithms using operations research and AI/ML methods to optimize production planning while incorporating sustainable development goals. Her research also leverages discrete event simulation to drive continuous improvement and business decisions in mining processes, enhancing efficiency and resource utilization. Additionally, she is pioneering the use of digital twin technology to monitor rock displacement in underground mines, improving safety and operational decision-making. Beyond technical advancements, Dr. Anani’s work focuses on increasing the participation of women in the mining industry and promoting environmental security in mining communities, fostering a more diverse and resilient future for the sector. In recognition of her contributions to the field, Dr. Anani received the 2022 Freeport-McMoRan Inc. Academic Career Development Grant from the Society for Mining, Metallurgy & Exploration (SME) and the prestigious 2023 Outstanding Young Professional Award from the Mining and Exploration Division of SME. Dr Anani serves on the APCOM International Council, the SOMP capacity building committee, and the Tennessee State University Mining Academia/Industry Advisory Board. Through her research, teaching, and professional service, Dr. Anani continues to make significant strides in promoting sustainable and efficient mining practices, while also fostering the next generation of mining engineers.

Degrees

  • Ph.D. Mining Engineering
    • Missouri University of Science and Technology, Rolla, Missouri, United States
    • Applications of simulation and optimization techniques in optimizing room and pillar mining systems
  • B.S. Mining Engineering
    • Missouri University of Science and Technology, Rolla, Missouri, United States Minor Outlying Islands

Work Experience

  • University of Arizona, Tucson, Arizona (2022 - Ongoing)
  • Pontificia Universidad Católica de Chile (2017 - 2021)
  • Missouri University of Science and Technology (2016 - 2017)
  • Missouri University of Science and Technology (2016 - 2017)
  • Missouri University of Science and Technology (2012 - 2015)
  • Victor Diamond Mine (2010)
  • Morupule Colliery Ltd (2008)

Awards

  • 2022 Freeport-McMoRan, Inc. Career Development Grant
    • Society for Mining, Metallurgy and Exploration, Fall 2022

Licensure & Certification

  • Diploma in Teaching, Pontificia Universidad Católica de Chile (2018)
  • Machine learning, Stanford University (2019)
  • Engineering Project Management, Rice University (2019)

Related Links

Share ProfilePersonal Website

Interests

Research

Mine planning optimization for transition mines; Production schedule optimization; Automation & Equipment reliability studies; ML/AL applications in mine planning and safety; Application of operations research in mining; Supply chain management in the mining industry; 2D - 4D/ VR in mine planning; ethnography

Teaching

MNE 442/542 - Application of discrete event simulation miningMNE 436/536 - Surface Mine Planning Design

Courses

2025-26 Courses

  • Application of DES in Mining
    MNE 542 (Fall 2025)
  • Dissertation
    MNE 920 (Fall 2025)
  • Independent Study
    MNE 699 (Fall 2025)
  • Thesis
    MNE 910 (Fall 2025)

2024-25 Courses

  • Dissertation
    MNE 920 (Summer I 2025)
  • Dissertation
    MNE 920 (Spring 2025)
  • Independent Study
    MNE 699 (Spring 2025)
  • Surface Mine Planning & Design
    MNE 436 (Spring 2025)
  • Surface Mine Planning & Design
    MNE 536 (Spring 2025)
  • Thesis
    MNE 910 (Spring 2025)
  • Application of DES in Mining
    MNE 542 (Fall 2024)
  • Dissertation
    MNE 920 (Fall 2024)
  • Independent Study
    MNE 599 (Fall 2024)
  • Independent Study
    MNE 699 (Fall 2024)
  • Thesis
    MNE 910 (Fall 2024)

2023-24 Courses

  • Thesis
    MNE 910 (Summer I 2024)
  • Dissertation
    MNE 920 (Spring 2024)
  • Research
    MNE 900 (Spring 2024)
  • Surface Mine Planning & Design
    MNE 436 (Spring 2024)
  • Surface Mine Planning & Design
    MNE 536 (Spring 2024)
  • Thesis
    MNE 910 (Spring 2024)
  • Application of DES in Mining
    MNE 542 (Fall 2023)
  • Dissertation
    MNE 920 (Fall 2023)
  • Research
    MNE 900 (Fall 2023)

2022-23 Courses

  • Surface Mine Planning & Design
    MNE 436 (Spring 2023)
  • Surface Mine Planning & Design
    MNE 536 (Spring 2023)
  • Application of DES in Mining
    MNE 542 (Fall 2022)
  • Thesis
    MNE 910 (Fall 2022)

Related Links

UA Course Catalog

Scholarly Contributions

Journals/Publications

  • Akbulut, N. K., Anani, A., & Adewuyi, S. O. (2025). Review of Virtual Reality Integration for Safer & Efficient Mining Operations. IEEE Access.
  • Anani, A., Adewuyi, S. O., & Gonzales, C. G. (2025). Sustainable copper supply chains: Evaluating ESG risks through the lens of regulatory compliance and risk assessment strategies. The Extractive Industries and Society, 23, 101662.
  • Kurniati, E. O., Musarandega, K., Adewuyi, S. O., Anani, A., & Kim, H. J. (2025). A Comparative Exploration of Machine Learning Techniques for Compressive Strength Prediction in Copper Mine Tailing Concretes. Mining, Metallurgy & Exploration, 1--24.
  • Adewuyi, S. O., Ahmed, H. A., Anani, A., Saeed, A., Ahmed, H. M., Alwafi, R., & Luxbacher, K. (2024). Enhancing Iron Ore Grindability through Hybrid Thermal-Mechanical Pretreatment. Minerals, 14(10), 1027.
  • Adewuyi, S. O., Anani, A., & Luxbacher, K. (2024). Advancing sustainable and circular mining through solid-liquid recovery of mine tailings. Process Safety and Environmental Protection, 189, 31--46.
  • Akbulut, N. K., Anani, A., Brown, L. D., Wellman, E. C., & Adewuyi, S. O. (2024). Building a 3D Digital Twin for Geotechnical Monitoring at San Xavier Mine. Rock Mechanics and Rock Engineering, 1--18.
  • Anani, A., Adewuyi, S. O., Risso, N., & Nyaaba, W. (2024). Advancements in machine learning techniques for coal and gas outburst prediction in underground mines. International Journal of Coal Geology, 104471.
  • Anani, A., Ortiz Flores, I., Li, H., & Jalilzadeh, A. (2024). Heuristic and Exact Approaches to Optimize the Production Scheduling of Mines Transitioning from Open Pit to Block Caving. Mining, Metallurgy & Exploration.
  • Jalilzadeh, A., Li, H., Anani, A., & Ortiz Flores, I. (2024). Optimizing Transition: Investigating the Influence of Operational Parameters on Production Scheduling Optimization for Mines Transitioning from Open Pit to Block Caving Methods. Optimization and Engineering,.
  • Rojas, C., Anani, A., Cordova, E., Nyaaba, W., Wellman, E., & Adewuyi, S. O. (2024). Analysis of Raise Boring with Grouting as an Optimal Method for Ore Pass Construction in Incompetent Rock Mass—A Case Study. Mining, Metallurgy & Exploration, 1--15.
  • Velasquez, N., Anani, A., Munoz-Gama, J., & Pascual, R. (2023). Towards the Application of Process Mining in the Mining Industry—An LHD Maintenance Process Optimization Case Study. Sustainability, 15(10), 7974.
  • ANANI, A., Nyaaba, W., Risso, N., & Tenorio, V. (2022).

    Application of Machine Learning in Mine Safety: A State-of-The-Art Review

    . Social Science Research Network. doi:10.2139/ssrn.4314075
  • Anani, A., Nyaaba, W., & Cordova, E. (2022). An integrated approach to panel width, fleet size, and change-out time optimization in room-and-pillar mines. Journal of the Southern African Institute of Mining and Metallurgy, 122(4), 181--190.
  • Ayawah, P. E., Sebbeh-Newton, S., Azure, J. W., Kaba, A. G., Anani, A., Bansah, S., & Zabidi, H. (2022). A review and case study of Artificial intelligence and Machine learning methods used for ground condition prediction ahead of tunnel boring Machines. Tunnelling and Underground Space Technology, 125, 104497.
  • Soto, I., Anani, A., & Cordova, E. (2022). A discrete event simulation approach for mine development planning at Codelco's New Mine Level. Journal of the Southern African Institute of Mining and Metallurgy, 122(10), 549--560.
  • Anani, A. (2021). Blasting and preconditioning modelling in underground cave mines under high stress conditions. Journal of the Southern African Institute of Mining and Metallurgy.
    More info
    SYNOPSIS Cave mining is an underground mass mining technique. The largest projects, which are known as 'super caves', produce hundreds of thousands of tons of ore per day, which involves large footprints with considerable column height, and have a life of mine of over 20-40 years. These operations are typically located deep, under high stresses and in competent rock masses, making initiation and propagation of the caving process harder to manage. These challenges must be confronted by optimizing the fragmentation of the orebody to achieve smaller size blocks that will result in consistent caving and improved flow of the ore from the drawpoints. To achieve better performance from the drawpoints, preconditioning is applied to fragment and damage the material required to cave. We present a proposed design for preconditioning in underground mines, considering the challenges that these large-scale mines are already facing, based on a comprehensive analysis of current design parameters, case studies, and sensitivity analyses using numerical models. Keywords: fragmentation, preconditioning, caving, blasting, structures, stresses, explosives.
  • Anani, A. (2020). Optimization of level intervals in steeply-dipping vein deposits: A two-step approach. Resources Policy.
  • Anani, A. (2019). Fatigue damage investigation of ultra-large tire components.
  • Anani, A. (2019). Optimizing cut-out distance for maximum coal productivity.
  • Anani, A. (2018). An assetmanagement oriented methodology for mine haul-fleet usage scheduling.. Reliability Engineering & System Safety.
  • Anani, A. (2017). Application of discrete event simulation in optimizing coal room and pillar panel width: A case study.
  • Anani, A. (2017). Optimization of Shuttle Car-Continuous Miner Matching Using Discrete Event Simulation: A Case Study.
  • Anani, A. (2016). Effect of Input Correlation on Discrete Event Simulation of Truck-Loader Production Operations.
  • Que, S., Anani, A., & Awuah-offei, K. (2016).

    Effect of Ignoring Input Correlation on Truck-Shovel Simulation

    . International Journal of Mining, Reclamation and Environment, 30(5), 405-421. doi:10.1080/17480930.2015.1099188
    More info
    AbstractThis paper presents an approach for handling correlated input variables in discrete event simulation (DES) modelling of truck–shovel systems using commercial DES software and uses a case study to investigate the effect of ignoring correlation between input variables. Multivariate random vectors, instead of independent probability distributions, are used for variables found to be correlated. The authors prove that correlations do exist in truck–shovel haulage systems. The model with multivariate random vectors performs better than the original model. The significance of modelling correlation in input variables depends on the strength of the correlation and the output’s sensitivity to the input variables.

Proceedings Publications

  • Akbulut, N. B., Anani, A., Brown, L. D., & Wellman, E. C. (2023).

    Innovative Approach for Monitoring Underground Excavations at San Xavier Underground Mine Laboratory

    . In 57th US Rock Mechanics / Geomechanics Symposium.
  • Tenorio Gutierrez, V. O., Anani, A., Riley, D., Risso, M. ., Heath, G., Akbulut, N. B., & Werner, J. D. (2024, Spring). Preprint 24-069 Outlining a Roadmap for the Deployment of a DIgital Twin System for the San Xavier Mine Laboratory. In 2024 SME MineXchange. SME Annual Meeting, Feb. 25 – Feb 28, 2024, Phoenix, AZ, 4.
    More info
    Implementing a Digital Twin at the San Xavier Mine Laboratory (Sahuarita, AZ), requires a network redesign with a robust architecture. The goal is to create an ecosystem in where all personnel and equipment can be monitored in real-time from the University of Arizona campus, visualizing the site in a digital terrain model. A wireless mesh will help to test robots with autonomous features. Expected outcomes include data retrieval and analytics, the evolution of communications and safety protocols, tele-operation, and an innovated approach for managing the site with new supervision challenges. A timeline with expected commissioning benchmarks is also included. Keywords: Autonomous Equipment, Data Collection, Digital Twin, Internet of Things, Network-based, Systems Integration, Wireless Mesh
  • Werner, J. D., Akbulut, N. B., Heath, G., Risso, M. ., Riley, D., Anani, A., & Tenorio Gutierrez, V. O. (2024, Spring). Preprint 24-069 Outlining a Roadmap for the Deployment of a Digital Twin System for the San Xavier Mine Laboratory. In 2024 SME MineXchange. SME Annual Meeting, Feb. 25 – Feb 28, 2024, Phoenix, AZ, 4.
    More info
    Implementing a Digital Twin at the San Xavier Mine Laboratory (Sahuarita, AZ), requires a network redesign with a robust architecture. The goal is to create an ecosystem in where all personnel and equipment can be monitored in real-time from the University of Arizona campus, visualizing the site in a digital terrain model. A wireless mesh will help to test robots with autonomous features. Expected outcomes include data retrieval and analytics, the evolution of communications and safety protocols, tele-operation, and an innovated approach for managing the site with new supervision challenges. A timeline with expected commissioning benchmarks is also included. Keywords: Autonomous Equipment, Data Collection, Digital Twin, Internet of Things, Network-based, Systems Integration, Wireless Mesh
  • Flores, I., Anani, A., & Li, H. (2022, September). Optimizing the Production Schedule for Transition Mines . In Mines 32nd SOMP annual meeting and conference.
  • Anani, A. (2018). CM cut-sequence optimization in room and pillar coal mines, Desafíos en Planificación Minera workshop.
  • Anani, A. (2018). Optimization of coal production rate as a function of cut-out distance.
  • Anani, A. (2017). Optimizing Room & Pillar Recovery and Production Rates as a Function of Panel Dimensions.
  • Anani, A. (2016). Effect of Changing Duty Cycles with A Panel in CM-Shuttle Car Matching: A Case Study.
  • Anani, A. (2016). Mine production optimization using cutting plane method.
  • Anani, A. (2015). Modeling Mining Risk in Room and Pillar Mine Sequencing Using Mixed Integer Linear Programming.
  • Anani, A. (2014). Cost Saving Approach using Solution Algorithms.
  • Anani, A. (2013). Incorporating Cycle Time Dependency in Truck- Shovel Modeling.
  • Anani, A. (2013). Modeling Room and Pillar Operation with Pillar Retrieval as Mixed Integer Linear Programming.

Presentations

  • Tenorio Gutierrez, V. O., Risso, M. ., & Anani, A. (2025, January/Winter). Mining and Geological Engineering: From Earth to Space. MinerAlZ Winter Workshop. Biosphere 2: NSF - Arizona State University - University of Arizona.

Others

  • Anani, A. (2019). Optimization of coal recovery and production rate as a function of panel dimensions.

Profiles With Related Publications

  • Afrooz Jalilzadeh
  • Nathalie Risso
  • Victor Octavio Tenorio
  • Leonard D Brown

 Edit my profile

UA Profiles | Home

University Information Security and Privacy

© 2025 The Arizona Board of Regents on behalf of The University of Arizona.