Flotation remains one of the most powerful methods of mineral separation in processing plants. When dialled in, it delivers high recovery, consistent grade and stable throughput. But when it’s off — even slightly — the knock-on effects can be felt across the whole circuit.
Evolution Northparkes Mine Grinding Mill and Flotation Control Parkes, NSW, Australia Brownfield Grinding and Flotation Optimisation Schneider PLC, Citect HMI Mipac was asked to improve
Glencore McArthur River Mine Rougher Flotation Expansion Project McArthur River Control system configuration project I/O Count 250 Yokogawa control system Glencore’s McArthur River Mine has
Most mineral processing facilities have invested heavily in data capture – sensors, historians, SCADA, OEM platforms – yet operations teams still spend hours reconciling data that should be integrated. This article explains why operational data fragmentation persists, what a well-integrated environment looks like, and the diagnostic questions worth asking first.
Mineral processing is the set of physical and chemical processes – crushing, grinding, flotation, dewatering – that separate valuable minerals from ore. This guide covers the core stages, how they differ from mining itself, and why automation and process control increasingly determine whether a plant hits its production targets.
In the heart of any mineral processing plant lies the SAG mill, a workhorse responsible for reducing large rocks into finer particles. Optimising its performance is crucial for efficient and cost-effective production.
Electrical and Instrumentation (E&I) engineering keeps mineral processing plants running – from sensors and PLCs to SCADA and DCS control. This guide covers what E&I engineering involves, the challenges engineers face, and how it drives precision, efficiency and reliability across mining and mineral processing operations.
According to McKinsey, fewer than 10 percent of installed APC systems are properly optimised in some industrial companies. This article covers the four most common causes of Advanced Process Control failure in mineral processing, how to identify the warning signs, and what a structured remediation approach looks like.
Advanced Process Control (APC) is a category of automation technology that uses predictive, multivariable algorithms to stabilise and optimise mineral processing circuits in real time. It operates above standard PID control – coordinating multiple interacting variables simultaneously to improve throughput, recovery, energy efficiency and process stability.
Operational efficiency in mineral processing is increasingly defined by stability, control quality and decision confidence, not new equipment. As ore variability increases and operating windows narrow, plants that focus on control, data integrity and operator capability are unlocking sustainable throughput and recovery gains without major capital spend.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will be in touch to discuss the best time for a demonstration.
Simply fill out the below form and we will send you the details of the webinar directly to your email.
Simply fill out the below form and we will email you a copy of the MIM Case Study.
Simply fill out the below form and we will email you a copy of our MPA product guide.