The Lithium Triangle—spanning Argentina, Bolivia, and Chile—is at the center of the global brine-lithium industry. As producers look to increase recovery, shorten production cycles, and manage water constraints, Direct Lithium Extraction (DLE) is gaining attention as a potential pathway to the next phase of lithium production.

But scaling DLE is not simply a matter of selecting an extraction technology.

The real challenge is turning a promising DLE process into a reliable, integrated, and economically viable industrial operation.

DLE can offer significant advantages over conventional evaporation, including faster lithium extraction and the potential for lower water and land requirements. However, performance varies significantly by technology and brine chemistry. Every salar has its own lithium concentration, impurities, chemistry, flow characteristics, and operating conditions.

That makes brine-specific validation essential.

A technology that performs well with one brine cannot automatically be transferred to another. Before committing to commercial-scale deployment, operators need to understand how the DLE process responds to the actual resource.

The scale-up journey therefore needs to move beyond laboratory recovery rates:

Brine characterization → Pilot validation → Process engineering → Integration → Demonstration → Commercial operation

One of the biggest challenges in DLE commercialization is bridging the gap between pilot performance and continuous industrial operation.

At larger scale, variables such as brine pretreatment, flow rates, pressure, temperature, reagent consumption, adsorbent or solvent performance, impurity management, regeneration, and water requirements can affect overall economics.

A successful pilot must therefore generate more than a recovery number.

It should provide the engineering data required to design the complete process system.

This includes equipment sizing, mass balances, utilities, control requirements, operating windows, maintenance requirements, and downstream integration.

The objective is not just to prove that DLE works. It is to prove that the complete process can work reliably at scale.

DLE cannot operate as an isolated technology package.

Commercial production requires integration with:

Brine wells → Pretreatment → DLE → Polishing → Concentration → Conversion → Water management → Reinjection

Each interface can influence production performance.

Pretreatment, for example, can determine how effectively the DLE system handles impurities. Downstream processing determines how extracted lithium is converted into a saleable product. Utilities and water systems can influence operating costs and sustainability.

This is why process and plant engineering must happen alongside DLE scale-up, rather than after technology selection.

Water is one of the most important considerations in the Lithium Triangle. The region’s high-altitude salt flats are environmentally sensitive, and freshwater availability is a significant concern for communities, ecosystems, and mining operations.

DLE can potentially reduce freshwater and land requirements compared with conventional evaporation, but the benefit cannot be assumed across every technology. Recent research shows substantial variation in freshwater consumption among different DLE approaches.

Scaling responsibly therefore requires measuring the complete water balance, not simply comparing extraction methods.

As DLE plants become larger and more complex, automation becomes critical.

Continuous extraction requires precise control of process conditions, equipment performance, flow rates, chemical inputs, regeneration cycles, and product quality.

Industrial connectivity can bring these systems together, while advanced analytics can identify process deviations and emerging performance issues.

Digital twins can further support scenario testing and operational optimization before changes are introduced into the live plant.

DLE scale-up is therefore as much an automation and integration challenge as it is an extraction challenge.

Utthunga can help DLE technology providers and lithium producers bridge the gap between DLE technology and commercial plant performance.

Its capabilities span:

• Process & Plant Engineering – translating DLE process requirements into integrated plant designs.
• Automation & Controls – developing control architectures for continuous DLE operations.
• Industrial Connectivity – connecting field equipment, control systems, and operational data.
• Digital Twin & Simulation – evaluating process scenarios and supporting operational readiness.
• AI & Analytics – identifying production deviations and optimization opportunities.
• Commissioning & Optimization – supporting the transition from pilot or demonstration scale to stable commercial operations.

The region is already moving from experimentation toward industrial deployment. Argentina, for example, has seen industrial-scale DLE development at Centenario, while other projects are pursuing pilot and demonstration programs.

The future of DLE in the Lithium Triangle will not be determined by extraction efficiency alone.

Commercial success will depend on how effectively producers integrate brine characteristics, DLE technology, process engineering, water management, automation, downstream conversion, and digital operations into one reliable system.

The critical question is no longer:

“Can DLE extract lithium from this brine?”

It is:

“Can we engineer, automate, and operate DLE reliably enough to deliver commercial lithium at scale?”

That is the real path from DLE potential to commercial production.

Ready to move your DLE project from pilot to commercial scale? Talk to Utthunga’s lithium engineering experts → 

Australia has built a strong position in the global lithium industry through its abundant hard-rock resources and large-scale spodumene production. But the next phase of the industry is increasingly focused on what happens after the mine.

Rather than exporting lithium primarily as spodumene concentrate, Australian producers are looking further downstream—toward lithium hydroxide, lithium chemicals and, ultimately, more integrated battery-material supply chains.

The reason is straightforward: more value can be created by processing lithium closer to its source.

Australia’s lithium mine output is forecast to continue growing, while refined lithium hydroxide production is also expected to expand significantly. Government forecasts show refined lithium hydroxide exports increasing from 13 kt LCE in 2024–25 to 72 kt in 2026–27.

The global battery industry has highlighted the risks of concentrating processing capacity in a limited number of markets. 

For Australian producers, downstream processing offers an opportunity to participate more directly in diversified battery-material supply chains. 

Producing battery-grade lithium chemicals domestically can help establish stronger links between Australian resources, international cathode producers and battery manufacturers. 

This is particularly important as governments and manufacturers seek more resilient and diversified critical-mineral supply chains. 

As Australian lithium producers move further downstream, the engineering challenge becomes more complex.

A mine and concentrator must operate as part of a broader processing value chain. Material characteristics, process conditions, equipment performance, utilities, automation and product quality all need to remain aligned.

This creates opportunities to improve performance through:

• Process optimization to improve recovery and throughput
• Automation and controls to stabilize complex processing operations
• Industrial connectivity to connect equipment and process data
• Asset reliability to reduce unplanned downtime
• Advanced analytics to identify process deviations
• Digital twins to test operating scenarios
• AI to support production and maintenance decisions

The objective is not simply to automate individual processes.

It is to create a connected processing operation that can consistently deliver battery-grade product.

CSIRO has identified improvements in cost, sustainability, purification efficiency, product quality and waste minimization as important opportunities for Australia’s critical-minerals processing industry.

This points to a broader shift.

Future competitiveness will depend on how effectively producers connect mining, concentration, refining, quality management, utilities and digital operations.

For Australian lithium companies, downstream investment can therefore become more than a strategy for value addition. It can become a platform for building greater operational control and technological capability across the lithium value chain.

Utthunga can support lithium producers and technology providers as they move from upstream operations toward integrated downstream processing.

Its capabilities span:

• Process & Plant Engineering — translating processing requirements into execution-ready engineering.
• Automation & Controls — integrating control systems and improving process stability.
• Industrial Connectivity — connecting equipment, systems and operational data.
• Digital Engineering — creating connected engineering information for plant execution and operations.
• AI & Analytics — turning plant data into actionable production and reliability insights.
• Commissioning & Optimization — supporting the transition from construction and startup to stable commercial operations.

Australia has already established itself as a major lithium resource and mining jurisdiction. The next opportunity is to strengthen its position further down the value chain.

It will require efficient plants, reliable operations, integrated engineering, intelligent automation, and continuous optimization.

That is where the next competitive advantage in Australian lithium may be created.

Looking to improve the performance of your lithium processing operations? Talk to Utthunga’s lithium engineering experts → 

Lithium is entering a new performance race. According to Global Critical Minerals Outlook 2026 Global lithium demand grew by around 25% annually over the past two years, while global battery demand surpassed 1.5 TWh in 2025, growing more than 35%. Lithium prices have also more than doubled amid stronger energy-storage demand and constrained supply.

As DLE moves toward commercial scale, technology providers are competing on recovery, selectivity, water use, energy efficiency, and processing speed. But in 2026, the benchmark is shifting from technology performance to plant economics and operational resilience.

The question is no longer simply:

“How efficiently can we extract lithium?”

It is:

“How efficiently can the entire plant produce it at commercial scale?”

For producers scaling Direct Lithium Extraction (DLE), recovery alone is no longer enough. Commercial viability depends on balancing recovery, purity, throughput, energy, water, reliability, and cost—and connecting these metrics to operational decisions.

Here are the 10 KPIs lithium processing facilities that should prioritize.

Measure the percentage of lithium captured from feed or brine. Higher recovery improves resource utilization, but the additional energy, reagent, and equipment costs must justify the gain. 

Track lithium concentration and key impurities throughout the process. Higher recovery has limited value if the product requires significant downstream treatment. 

Measure feed processed and lithium produced per hour, day, and year. Tracking throughput across process stages helps identify bottlenecks before they constrain production. 

Track kWh per tonne of LCE across extraction, pumping, separation, purification, and utilities. Correlate energy throughput and operating conditions to identify optimization opportunities. 

Track water intake, recycling, reuse, and losses per tonne of LCE. DOE notes that some geothermal DLE approaches have demonstrated the potential for 99% less water per tonne of lithium than other lithium mining processes. Source: U.S. Department of Energy, Office of Geothermal. 

Measure reagent consumption per tonne of LCE and correlate it with feed chemistry and operating conditions. This can reveal process drifts and opportunities to reduce OPEX. 

Track availability, mean time between failures (MTBF), mean time to repair (MTTR), and unplanned downtime across pumps, membranes, analyzers, controls, and utilities. 

Monitor pH, temperature, pressure, flow, concentration, and impurity levels in real time. During scale-up, small deviations can translate into significant production losses. 

Combine energy, reagents, water, maintenance, labor, utilities, and downtime into one economic view. A high-recovery process is not commercially attractive if its total production cost remains uncompetitive. 

Track CO₂ emissions, energy, water, waste, and other environmental indicators alongside production to connect sustainability with operational performance. 

The next competitive advantage is not simply tracking KPIs—it is connecting them.

A drop in recovery should trigger more than a dashboard alert. Operators need to determine whether the cause is feed variability, equipment degradation, process instability, reagent consumption, or control-system performance—and understand its impact on throughput and cost.

Lithium scale-up is not just an extraction challenge—it is a plant performance challenge.

Utthunga brings together process and plant engineering, industrial automation, OT-IT convergence, IIoT, advanced analytics, and AI to connect critical KPIs, uncover root causes, and turn plant data into actionable operational intelligence.

With 20+ years of industrial engineering experience and a 1,300+ member engineering team, Utthunga helps mining and minerals organizations optimize processes, assets, automation, and digital operations—from engineering and simulation to real-time monitoring and intelligent decision-making.

Track the KPI. Understand the cause. Predict the impact. Optimize the outcome.

Because commercial-scale lithium processing will not be defined by recovery alone.
It will be defined by how intelligently the entire plant performs.

Talk to Utthunga about building a smarter, more connected lithium processing operation. 

With global lithium demand projected to grow more than threefold by 2040, getting plant design right is becoming as critical as selecting the right extraction technology.

The most successful lithium facilities understand that long-term recovery, throughput, and profitability are largely determined by early engineering decisions. Hidden design risks may go unnoticed during commissioning, but they can significantly impact plant performance, maintenance costs, and scalability throughout the asset lifecycle.

Why it matters: Accurate brine characterization is the foundation for selecting the right extraction technology and optimizing plant performance.

Why it matters: The best technology is not the newest one, but the one that aligns with the project’s chemistry, production goals, and business objectives.

Impact:

• Reduced throughput
• Higher energy consumption
• Frequent maintenance shutdowns
• Increased operating costs

Why it matters: Early process modeling and regular Plant Health Checks can identify and mitigate these risks before they impact production.

Why it matters: Reliability-focused engineering must consider future expansion, operational flexibility, and maintainability, not just current production targets.

• Equipment degradation
• Process inefficiencies
• Scaling trends
• Energy losses
• Recovery fluctuations

Why it matters: Digital monitoring and predictive analytics enable proactive decision-making, reducing downtime and improving profitability.

• OPEX
• Maintenance costs
• Energy consumption
• Recovery efficiency
• Plant availability

Why it matters: Plants designed for lifecycle performance achieve greater reliability, lower downtime, and stronger long-term returns.

However, the most successful lithium projects recognize that operational excellence begins much earlier. The greatest value is created when engineering decisions made during project development reduce risks before they become operational problems. 

Rather than viewing process engineering, plant design, automation, and digitalization as separate activities, leading organizations are increasingly adopting an integrated lifecycle approach that connects design, operations, and future expansion requirements from day one. 

• Process and plant engineering 
• Feasibility studies and process simulation 
• Equipment, piping, and layout engineering 
• Instrumentation and control design 
• Plant integration and multidisciplinary engineering 
• Brownfield modernization and debottlenecking 
• Process optimization and capacity expansion 

By combining process expertise with plant engineering capabilities, Utthunga helps build lithium facilities that are scalable, reliable, and easier to operate throughout their lifecycle. 

Many of the biggest challenges in lithium extraction originate long before operations begin. Incomplete process understanding, technology integration issues, scaling risks, and reliability gaps can quietly impact plant performance and profitability for years.

Organizations that take a lifecycle-focused engineering approach are better positioned to improve recovery, reduce operational risk, and scale efficiently as lithium demand continues to grow.

Planning a Greenfield or Brownfield Lithium Project?
Book a Plant Visit Today and discover how Utthunga can help engineer a more reliable, efficient, and future-ready lithium operation.

South America is at the center of the global lithium supply chain. Argentina and Chile already have operating lithium assets, while new projects and expansions are adding production capacity across the region.

But the next production opportunity may not always require a new mine or a new plant.

Existing assets can often deliver more—if operators know where production is being lost and how to remove those constraints.

As lithium producers face pressure to improve output, recovery, costs, and water efficiency, the focus is shifting from simply building capacity to getting more performance from assets already in operation.

For existing lithium operations, constraints can emerge across the value chain—from brine extraction and wellfield performance to evaporation, processing, utilities, equipment reliability, and downstream conversion. 

The first step is therefore to establish a clear performance baseline. 

Key questions include: 

• Where are production bottlenecks occurring? 
• Which assets are operating below their design potential? 
• Where are recovery losses occurring? 
• Which equipment constraints are limiting throughput? 
• How are feed and operating conditions affecting performance? 
• Where are maintenance issues creating recurring downtime? 

A data-backed assessment can identify the few constraints that have the greatest impact on production. 

For brine-based lithium operations, production performance is closely connected to the relationship between the resource, wellfield, and processing system.

Wellfield behavior can change over time. Brine chemistry, flow rates, lithium concentration, pumping strategies, and reservoir conditions can all influence production.

Optimization therefore needs to look beyond individual assets.

Resource behavior → Wellfield performance → Process recovery → Production output

Connecting these variables can help operators identify opportunities to improve extraction and processing without simply adding more infrastructure.

Expansion is not always the fastest route to higher production.

Existing plants may contain underutilized equipment or hidden constraints that prevent the operation from reaching its full potential. Utilities, material flows, instrumentation, control loops, equipment availability, and process interfaces can all become bottlenecks.

A structured debottlenecking exercise can help identify where targeted engineering changes can unlock additional capacity.

This could involve:

Process optimization | Equipment upgrades | Control improvements | Utility optimization | Automation enhancements | Maintenance improvements

The objective is to increase throughput while minimizing unnecessary capital expenditure.

Most operating lithium assets generate significant volumes of process and equipment data. The challenge is turning that data into decisions.

Industrial connectivity can bring data from field devices, control systems, equipment, and production systems into a common operational view.

Advanced analytics can then help identify process deviations, equipment degradation, abnormal operating conditions, and production losses.

Digital twins can support what-if analysis and help teams evaluate process changes before implementing them in the plant.

AI can take this further by helping identify patterns that may not be immediately visible through conventional monitoring.

The goal is not more data. It is better production decisions.

Utthunga can help South American lithium producers connect process engineering, automation, industrial connectivity, and digital intelligence to improve existing asset performance.

Its capabilities can support:

• Process & Plant Engineering – identify constraints and optimize plant performance.
• Automation & Controls – improve control strategies and process stability.
• Industrial Connectivity – connect equipment, control systems, and operational data.
• Digital Twin & Simulation – evaluate optimization scenarios before implementation.
• AI & Analytics – identify production losses, anomalies, and reliability opportunities.
• Asset Reliability – improve equipment availability and maintenance effectiveness.

This approach is particularly relevant as regional producers pursue phased expansions and seek to leverage existing infrastructure rather than treating every production increase as a greenfield development. Recent expansion plans in Argentina demonstrate this direction, including phased capacity additions designed to leverage existing infrastructure and operating experience.

Looking to unlock higher production from your existing lithium assets?

Talk to Utthunga’s lithium engineering experts → 

Brazil is emerging as an important lithium-producing region, with growing activity around resource development, processing, and battery-material supply chains. But moving from a promising resource to sustained commercial production requires more than securing reserves or proving a process.

For Brazilian lithium producers, the next challenge is speeding up the transition from resource potential to reliable, scalable production.

That requires engineering decisions to be made early, integration to happen across disciplines, and operational readiness to be built into the project from the start.

No two lithium resources behave exactly the same way. Mineralogy, grade, impurities, recovery characteristics, and feed variability can all influence process performance.

For hard-rock lithium projects, this can affect crushing, beneficiation, concentration, conversion, material handling, water, and energy requirements. For projects exploring Direct Lithium Extraction (DLE), feed chemistry, pretreatment, water management, chemical requirements, and downstream processing introduce additional considerations.

The first step toward faster commercialization is therefore a resource-specific process and engineering strategy.

The objective should not simply be to prove that lithium can be extracted. It should be to establish a process that can be engineered, integrated, controlled, and scaled economically.

One of the biggest risks in lithium projects is the transition from pilot-scale success to commercial-scale performance.

A pilot can demonstrate technical feasibility, but commercial production introduces new challenges around equipment sizing, process integration, utilities, automation, controls, material flows, and operating conditions.

Producers can reduce this gap by bringing plant engineering into the process-development stage.

Early engineering can help identify:

• Process integration requirements
• Equipment and utility requirements
• Control and instrumentation needs
• Bottlenecks and operational constraints
• Data and connectivity requirements
• Commissioning and ramp-up priorities

This creates a clearer path from pilot validation to execution-ready plant design.

Commercial readiness should not begin when the plant is ready to start.

Operational requirements need to be considered during engineering.

Control philosophy, instrumentation, asset hierarchy, alarm management, maintenance strategy, operator workflows, production KPIs, and data architecture should be defined before commissioning.

This allows teams to identify operational issues earlier and reduces the risk of discovering critical gaps after startup.

The goal is simple:

Build a plant that is ready to operate—not just ready to commission.

Another important acceleration opportunity is looking beyond the primary lithium extraction or processing technology.

Commercial production depends on the interaction between multiple systems:

Process → Utilities → Equipment → Automation → Controls → Data → Operations

For DLE projects, for example, the technology package needs to integrate with pretreatment, utilities, downstream processing, instrumentation, automation, and plant-wide digital systems.

A fragmented approach can create interfaces, delays, and integration risks. A coordinated engineering approach can help identify these dependencies earlier and support smoother execution.

Utthunga supports lithium producers and technology providers across the engineering and digital layers required to move from process development toward commercial operations. 

Its capabilities include: 

• Process & Plant Engineering – translating process requirements into execution-ready engineering. 

• Automation & Controls – developing control architectures and integrating plant systems. 

• Industrial Connectivity – connecting equipment, control systems, and operational data. 

• Digital Engineering – creating connected engineering information and digital models. 

• AI & Analytics – converting plant data into actionable production and reliability insights. 

• Commissioning & Optimization – supporting the transition from plant startup to stable operations. 

By connecting engineering, automation, digital technologies, and operational requirements, Utthunga can help reduce the gap between process readiness and plant readiness. 

Talk to Utthunga’s lithium engineering experts →