Callan Lowes

Recovery and concentration of gold ores by coarse particle gangue rejection in a REFLUX classifier

 CRC ORE
 Program:

 

 Program 3: Extract (P3-008)

ORE

 Callan Lowes Pic Web
Callan Lowes calibrating the
REFLUX Classifier fluidisation
during a recent run

YouTube

 

       

 PhD Topic:

 

Recovery and concentration of gold ores by coarse particle gangue rejection in a REFLUXTM classifier

 
       

 Institution:

 

University of Newcastle

 
       

 Research
 Supervisors:

 

Laureate Prof Kevin Galvin and Dr James Zhou

 
       

 Expected
 Completion:

 

February 2020


 

 

 Meet Callan Lowes:

Callan Lowes Headshot Web

ORE

Callan Lowes is a current PhD student at the Centre for Advanced Particle Processing and Transport, University of Newcastle, Australia. He was awarded a Bachelor of Engineering (Chemical) in November 2016 before commencing his PhD candidature in 2017 as part of the AMIRA P420F project.

Callan’s research investigates applying the REFLUXTM Classifier (RC) as a pre-concentration strategy in mineral processing, a project which could deliver significant benefits in improving the economic and environmental sustainability of mining.

Upon completion of his PhD, Callan hopes to apply his knowledge of the REFLUXTM Classifier to continue contributing to research projects in the field of mineral processing.

     

 Focus area:

Recovery and concentration of gold ores by coarse particle gangue rejection in a REFLUXTM classifier.

 

 

As ore grades decline, operating costs per tonne of metal produced increase, decreasing mining productivity. One potential solution is to pre-concentrate ore by removing waste particles at the coarsest possible particle size. This process is known as coarse particle gangue rejection.

This research applies the REFLUXTM Classifier, a relatively recent innovation in gravity concentration. It combines the effect of a fluidised bed with a set of parallel inclined channels, to reject coarse waste particles while concentrating the valuable mineral prior to energy intensive milling.

This CRC ORE and AMIRA funded work applies this system to reduce energy and water consumption, reduce greenhouse gas emissions, and minimise the environmental impact of mining.

             

CRC ORE logo suzi moore     WASM logo     University of Newscastle Logo     NIER logo     AMIRA CRC ORE Essential Participant   CRC DIIS CRC Business AusGov Industry 100K

                       

Aus Gov CRC logo reverse 01

 

Get in Touch

ADDRESS:PO Box 403, Kenmore Queensland 4069

EMAIL:
crcore@crcore.org.au

Our location