top of page
  • Facebook
  • Twitter
  • LinkedIn
AdobeStock_498583184.jpeg

Industry Research & Performance Studies

​To validate the impact of AI in industrial and mining environments, a range of performance studies have been conducted across operational sites. These studies typically involve side-by-side comparisons of AI-assisted systems versus traditional control methods, using real-time data, historical benchmarks, and controlled variables to measure improvements in efficiency, recovery, and cost reduction. The following results showcase how AI automation is transforming critical processes like grinding, flotation, and leaching.

Study Results Overview

Across multiple industries, AI integration has consistently delivered measurable improvements in process stability, output, and resource efficiency. The studies below highlight the real-world applications of AI in optimizing grinding, flotation, and leaching—three critical stages in industrial and mineral processing. These results demonstrate quantifiable improvements in throughput, energy usage, and overall profitability.

BrainiAll Goldmine Study

Following these benchmarks, BrainiAll conducted its own large-scale Goldmine Study, applying AI-powered automation across key stages of gold production. The study revealed substantial advancements in operational control, reagent efficiency, and predictive maintenance.

Read more about BrainiAll’s Goldmine Study.

Grinding, Flotation & Leaching Performance Studies

GRINDING:  AI-POWERED IMPROVEMENTS ACROSS INDUSTRIES​​​

AI automation is redefining grinding across Mining, Food & Beverage, Pharmaceuticals, and Water Treatment—delivering real-time precision, reducing energy use, and maximizing throughput. These case studies reveal the measurable gains BrainiAll delivers at every stage of material reduction.

Study Results Below
AdobeStock_441372325_Preview.jpeg

Case Study 1: Mining Industry – Optimizing Ore Grinding with AI

Company: Global Copper Mining Corporation

Challenge:

  • High energy consumption in SAG and Ball Mills due to inefficient grinding.

  • Overgrinding leading to metal losses and increased processing costs.

  • Frequent mill breakdowns causing unexpected downtime.

AI Solution Implemented:

  • AI-Powered Mill Sensors: Installed real-time sensors to monitor ore feed, particle size, and mill speed.

  • Machine Learning Algorithm: Optimized grinding parameters dynamically to reduce energy consumption.

  • Predictive Maintenance System: AI detected wear and tear in grinding liners, scheduling maintenance proactively.

Results:

  • 10% Reduction in Energy Consumption – AI adjusted mill speed based on real-time ore hardness data.

  • 15% Increase in Recovery Rates – Optimized grinding prevented overgrinding, maximizing metal extraction.

  • 20% Reduction in Downtime – AI-predictive maintenance minimized unexpected breakdowns.

Case Study 2: Food & Beverage Industry – AI-Driven Flour Milling Optimization

Company: Wheat Processing Company

Challenge:

  • Inconsistent flour particle size affecting product quality.

  • High energy consumption in roller mills.

  • Frequent equipment wear leading to costly replacements.

​​AI Solution Implemented:

  • AI-Controlled Roller Mills: Automated pressure adjustments based on grain hardness.

  • Real-Time Particle Analysis: AI cameras monitored flour consistency and adjusted mill settings accordingly.

  • Predictive Wear Detection: AI algorithms predicted when grinding rollers needed replacement.

​​Results:

  • 99.5% Consistency in Flour Particle Size – AI continuously adjusted roller pressure for uniform grinding.

  • 12% Energy Savings – Optimized grinding parameters reduced unnecessary power use.

  • 30% Reduction in Equipment Downtime – AI detected wear patterns early, preventing failures.

Case Study 3: Pharmaceutical Industry – AI-Driven Jet Milling for Drug Formulation

Company: Biotech Pharma Solutions

 

Challenge:

  • Difficulty in achieving micron-scale particle sizes for active pharmaceutical ingredients (APIs).

  • Temperature sensitivity of drugs causing degradation during grinding.

  • Cross-contamination risks between different drugs.

AI Solution Implemented:

  • AI-Optimized Jet Mills: AI-controlled airflow and grinding speeds for ultra-fine, uniform particle sizes.

  • Temperature Monitoring System: AI adjusted mill speeds to prevent excessive heat buildup.

  • Automated Cleaning Protocols: AI detected residual contamination and initiated self-cleaning sequences.

Results:

  • 40% Improvement in API Consistency – AI optimized airflow to maintain particle uniformity.

  • Eliminated Heat-Induced Drug Degradation – AI-controlled temperature prevented molecular breakdown.

  • 50% Faster Changeovers – Automated cleaning reduced downtime between production batches.

Case Study 4: Water Treatment Industry – AI-Enhanced Grinding for Chemical Processing

Company: Clean Water Solutions

 

Challenge:

  • Inconsistent grinding of lime and activated carbon affecting water treatment efficiency.

  • Overuse of chemicals due to poor dissolution rates.

  • Equipment wear and frequent blockages in grinding mills.

​​AI Solution Implemented:

  • AI-Optimized Attrition Mills: Adjusted grinding intensity in real time based on chemical feedstock properties.

  • Automated Dissolution Monitoring: AI sensors measured dissolution rates, adjusting grind size dynamically.

  • Predictive Maintenance Algorithms: Identified early signs of mill clogging and component wear.

​​Results:

  • 25% Improvement in Chemical Utilization – AI ensured optimal grinding for faster dissolution.

  • Reduced Chemical Waste by 18% – Better particle control led to more efficient water treatment.

  • Lower Equipment Maintenance Costs – Predictive maintenance extended mill lifespan by 30%.

Conclusion: The Future of AI-Driven Grinding

 

These case studies highlight the transformative impact of AI in grinding processes across industries. By implementing AI-driven automation, companies are achieving:

  • Higher efficiency and lower energy consumption

  • Improved product consistency and quality

  • Reduced operational downtime through predictive maintenance

  • Greater sustainability by minimizing waste and optimizing resource use

 

As industries continue to evolve, AI-powered grinding will play a crucial role in enhancing production efficiency and reducing costs while meeting environmental and regulatory requirements.

AdobeStock_528849940_Preview.jpeg

FLOTATION:  AI-POWERED IMPROVEMENTS ACROSS INDUSTRIES​​​

From mining recovery to beverage clarity, AI brings intelligent flotation control to the next level. Real-time AI adjustments cut chemical use, stabilize froth, and boost separation efficiency—see how it performs across industries.

Study Results Below

Case Study 1: Mining – Real-Time Froth Control Optimization (Industry Use Case):

Site:  Mid-scale gold and copper mine in South America

Challenge:

  • Unstable froth conditions, inconsistent recovery, and high reagent use

​​AI Solution Implemented:

  • AI vision systems and real-time sensors were deployed to analyze froth and automatically adjust air flow, pH, and reagent dosing.

​​Results:

  • 9.8% increase in metal recovery

  • 15% reduction in reagent consumption

  • Improved cell stability and process consistency

  • ROI achieved within 7 months

Case Study 2:  Water Treatment: AI-Controlled Leaching for Heavy Metals (Industry Use Case)

Facility: Industrial wastewater plant processing e-waste runoff


Challenge:

Precise removal of toxic metals like lead and cadmium
Solution:

AI managed chemical leach dosing and pH neutralization in response to real-time influent composition
Results:

  • Over 98% heavy metal removal

  • 30% reduction in chemical costs

  • Reduced sludge generation

  • Streamlined compliance reporting

Case Study 3: Food & Beverage – Juice Clarification and Froth Stability (Industry Use Case)
Plant: Fruit juice facility in North America

 

Challenge:

Seasonal juice variability impacted clarification consistency
Solution:

AI-controlled flotation adjusted air levels and timing based on pulp content and turbidity
Results:

  • 14% improvement in clarity

  • 20% reduction in flotation agent usage

  • Increased product yield

  • Improved batch consistency

Case Study 4: Pharmaceuticals – Flotation for Protein Separation (Industry Use Case)
Facility: Biopharmaceutical fermentation plant

 

Challenge:

Inconsistent protein separation due to biomass variation
Solution:

AI monitored cell density and bubble dynamics to optimize flotation during downstream processing
Results:

  • 12% increase in target compound recovery

  • Reduced downstream purification steps

  • Improved batch-to-batch reproducibility

LEACHING:  AI-POWERED IMPROVEMENTS ACROSS INDUSTRIES​​​

BrainiAll transforms leaching with adaptive, real-time AI control that extracts more, wastes less, and protects margins. These case studies show how smarter leaching means better yield, lower chemical costs, and faster ROI.

Study Results Below
AdobeStock_1188757924_Preview.jpeg

Case Study 1:  Mining: Adaptive Cyanide Leach Control (Industry Use Case)

Site: Gold heap leach operation in West Africa

 

Challenge:

Variable ore conditions led to inconsistent recovery and reagent waste
Solution:

BrainiAll’s AI platform adjusted cyanide dosing, irrigation rate, and pH based on real-time ore and leachate data
Results:

  • 11.5% increase in gold recovery

  • 25% reduction in cyanide use

  • Shorter leaching cycle by 2.5 days

  • Improved environmental compliance

Case Study 2: Water Treatment – AI-Controlled Leaching for Heavy Metals (Industry Use Case)
Facility: Industrial wastewater plant processing e-waste runoff

 

Challenge:

Precise removal of toxic metals like lead and cadmium
Solution:

AI managed chemical leach dosing and pH neutralization in response to real-time influent composition
Results:

  • Over 98% heavy metal removal

  • 30% reduction in chemical costs

  • Reduced sludge generation

  • Streamlined compliance reporting

Case Study 3: Food & Beverage – Caffeine Extraction in Decaffeination (Industry Use Case)
Facility: Coffee processing facility

 

Challenge:

Flavor loss during caffeine extraction
Solution:

AI adjusted water flow, temperature, and extraction time based on bean batch quality
Results:

  • 17% reduction in flavor compound loss

  • Consistent caffeine extraction levels

  • Shorter extraction times

  • Improved taste profile across batches

Case Study 4: Pharmaceuticals – Botanical Compound Extraction Optimization (Industry Use Case)
Facility: Herbal supplement manufacturing site

 

Challenge:

Inconsistent yield from plant-based materials
Solution:

AI-controlled solvent ratios and temperature based on batch moisture and density
Results:

  • 20% increase in active compound recovery

  • 10% reduction in solvent usage

  • Improved formulation consistency

  • Less downstream purification required

Case Studies: Gold Mine Grinding Optimization with BrainiAll AI Services & Autopilot

Revolutionizing Industrial Mining with BrainiAll Autopilot AI-Driven Automation

BrainiAll Autopilot has transformed gold mine grinding operations by delivering real-time control and optimization for complex industrial processes. With its advanced capabilities, BrainiAll enhances efficiency, increases yields, and ensures consistent performance, offering measurable value to the bottom line.

 
Maximizing Efficiency in Industrial Mining

Operating in an environment with 40+ pieces of equipment, 120+ monitoring sensors, and over 20 decision commands executed every second, the gold mine’s grinding operation was ripe for optimization. BrainiAll AI Autopilot seamlessly integrates into this intricate ecosystem, analyzing vast amounts of data in real time and making intelligent adjustments to equipment and processes.

Future of BrainiAll Autopilot AI in Mining

Case studies highlight the transformative power of BrainiAll AI in industrial mining. By leveraging BrainiAll’s technology, businesses can unlock new levels of operational efficiency and profitability, setting a new standard for automation in manufacturing and mining industries.

bottom of page