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The Rise of Intelligent Crushing: AI Applications in Mobile Crusher Technology

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The crushing industry stands on the brink of a technological revolution, where artificial intelligence is transforming mobile crushers from simple rock-breaking machines into sophisticated, self-optimizing systems. No longer confined to mechanical crushing alone, these intelligent units now analyze, adapt, and improve their performance in real-time, ushering in an era of unprecedented efficiency and precision. This evolution couldn’t come at a more critical time, as aggregate producers face mounting pressure to increase output while reducing energy consumption and environmental impact.

What makes AI-enhanced crushing particularly revolutionary is its ability to address the inherent variability of feed material—the traditional Achilles’ heel of crushing operations. By continuously monitoring and adjusting to changes in rock hardness, size distribution, and moisture content, intelligent track crushers maintain optimal performance regardless of material inconsistencies. The implications extend far beyond operational efficiency, promising to reshape everything from maintenance schedules to final product quality across the aggregates sector.

Self-Learning Crushing Algorithms

Modern AI-powered crushers employ neural networks that learn from every ton of processed material, gradually refining their crushing patterns to maximize throughput while minimizing wear. These systems don’t just react to current conditions—they predict upcoming material characteristics based on historical data and adjust parameters preemptively. Some advanced models can even recognize subtle vibration patterns that indicate impending mechanical issues, allowing for proactive maintenance before failures occur.

The true genius lies in the systems’ ability to balance competing priorities autonomously. Should energy efficiency take precedence over product shape today? Does the next project require particular attention to fines reduction? Operators simply define their objectives, and the AI orchestrates the complex interplay of speed, stroke, and pressure to deliver optimal results. This adaptive capability proves particularly valuable when processing blended or recycled materials with inconsistent properties.

Vision-Enhanced Material Analysis

Cutting-edge mobile crushers now integrate high-resolution cameras and spectral imaging that analyze every scoop of feed material before it enters the crushing chamber. This visual intelligence goes far beyond basic size detection—it identifies mineral composition, predicts crushability, and even spots contaminants that could damage equipment or compromise final product quality. The system automatically adjusts feed rates and crushing parameters based on this real-time material profiling.

Some pioneering units have taken this further with cross-belt analyzers that continuously monitor output gradation. This closed-loop system makes micro-adjustments throughout the operation, ensuring product consistency that would be impossible through manual control. For asphalt and concrete producers who demand precise aggregate specifications, this capability eliminates costly over-processing while guaranteeing on-spec material from the first ton to the thousandth.

Predictive Optimization Across Operations

The most advanced AI crushing systems extend their intelligence beyond individual machines to optimize entire mobile crushing circuits. By analyzing data from primary, secondary, and tertiary units simultaneously, these systems dynamically redistribute processing loads to prevent bottlenecks. They can predict when a screen will blind or when surge piles will empty, adjusting upstream operations to maintain seamless material flow.

This holistic approach yields surprising benefits in fuel efficiency and wear part longevity. One European aggregate producer reported a 22% reduction in diesel consumption and a 40% increase in liner life after implementing AI coordination across their three-stage mobile crushing plant. The system’s ability to “learn” the specific characteristics of each quarry’s geology means these improvements compound over time, with the AI developing site-specific strategies no human operator could replicate.

As mobile crushing enters this new intelligent era, the technology is redefining what’s possible in aggregate production. No longer passive tools, these AI-enhanced crushers have become active partners in operational decision-making, capable of insights and optimizations that elude even experienced crews. While the industry is only beginning to scratch the surface of these capabilities, early adopters are already seeing transformative results—higher quality products, lower operating costs, and unprecedented consistency across variable feed materials. The future of crushing isn’t just mobile; it’s perceptive, adaptive, and relentlessly efficient.



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Vicky Demas on the value of easy to use imaging tools and the potential of AI

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Photo owned by identifeye HEALTH and used with permission

identifeye HEALTH has launched its retinal screening platform. The platform is a compact, app-based system that is FDA-registered under a 510(k)-exempt classification. The company is initiating pilot programs with health systems and community-based providers.1

The system is designed for point-of-care environments, allowing nurses and medical assistants to capture high-quality retinal images with minimal training. The company has stated that the identifeye Camera can help to lower common barriers to screening, including time constraints, cost, and limited specialist availability.1 The goal is to help triage patients who need specialist care while reducing bottlenecks in the healthcare system.

With the announcement of this news, Modern Retina had the opportunity to speak with Vicky Demas, CEO of identifeye HEALTH to discuss how this advancement in technology can benefit patients and ophthalmologists. Demas is an engineer by training who has spent the last 25 years working at the conjunction of technology and healthcare.

The conversation discussed not only the identifeye Camera and retinal imaging platform, but also how technology and AI has the power to transform the field of ophthalmology and positively impact other areas of healthcare and research.

Note: The following conversation has been lightly edited for clarity.

Photo of Vicky Demas, CEO of identifeye HEALTH, used with permission

Modern Retina: There’s been some recent news with identifyee HEALTH. What are the updates with the company and what are the plans for the future?

Vicky Demas: Yes, we’re super excited. We [identifeye HEALTH] formally registered with the FDA earlier in July. As part of that, we can formally market the device in the US. We’re speaking with major health systems to secure placements pilots. Really exciting for the team, especially, and we’re out doing community screenings. We’re partnering with organizations, returning results to patients who otherwise wouldn’t have been able to get their vision checked. We’re super excited to be making impact, learning from the field, and figuring out how we can make this a scalable solution.

MR: Can you speak to the technology and what ophthalmologists should know about what’s coming down the line in this field?

Demas: I am an engineer by training, but I’ve spent the last 25 years working at that interface of tech and healthcare life sciences, which is relevant to identifeye asI was part of the team at Google, actually Google X, that started the Life Sciences Initiative. The goal was to leverage AI and Google infrastructure to solve problems worth solving in healthcare and life sciences. Part of that incredible job I had was to work with industry experts to figure out what those problems should be, and build teams to execute proof of concept, joint ventures, etc. That was when I was introduced to the concept of the eye as a window into the body and health, and the potential of the platform to, not only look at ophthalmic diseases in the retina, but also systemic disease in a very scalable way.

I left the space, worked in cancer diagnostics, and when I came back to work on what is now identifeye HEALTH, it was really striking to me that, while there is a ton you can do with AI and image segmentation, annotation, etc., people had overlooked the importance of capturing with ease, a high quality retinal image in a general setting, which has been our focus that identifeye is leveraging AI and automation to make capturing retinal images, I say, as simple as measuring someone’s blood pressure, so it can actually happen closer to patients. So that’s the biggest innovation with our platform, and what we’re really excited to do is now a medical assistant, administrative person in your office can, without a ton of training, capture high quality images.

The device will also check with AI that the image quality is appropriate to be interpreted, whether by a human or an algorithm in the future. It is the high level of what the product does. Our general approach, is that we’re looking to figure out how to integrate into workflows and help triage patients to specialty care as they’re needed, not to substitute, but to make it accessible. We want figure out how to make sure that patients who should see an ophthalmologist see an ophthalmologist, but those who don’t, don’t bottleneck the system, don’t get inconvenienced.

MR: Where do you see this technology being implemented or the potential to be implemented?

Demas: We’re certainly thinking settings closer to patients. For example, primary care would be a good place. Retail pharmacies, they’re expanding to be able to really create services around healthcare, primary care. The focus is to be accessible ,closer to patients, making screening more convenient, and whether, as we’re doing now with a tele-retinal service or with AI automating the report back to the clinician for help assessing and helping the patient stay on top of their health.

MR: When we talk about the potential of AI to play a role in this, how do you think that the landscape of AI overall will play into healthcare in this role and in other roles?

Demas: Tt’s been a long time in the making, right? I think of AI will start with anything from the simple things like building classifiers to automate repetitive tasks that humans aren’t great at, like. Even self-concordance is not looking great, so AI can certainly start doing a lot more of that, allowing, clinicians, to do more things that they’re uniquely qualified to do.

As an example, multimodal data: These are the types of things that I’m super excited to see happen, but it all has to stay grounded, because even in this very simple case where we’re talking about our next product being an autonomous AI classifier for diabetic retinopathy, we really want to figure out the referral at the more than mild diabetic retinopathy threshold. Then you start looking at everyone in the clinical ecosystem… we should be thinking about triaging and risk stratifying patients who really have to go see someone. I’ll say AI has huge potential. I’m excited to see it, but it has to really be very thoughtful and integrated with real, practical workflows.

MR: What does the timeline look like for identifeye HEALTH, as you are taking these steps and beginning to market?

Demas: In the next few months, I hope we will be seeing a ton of placements with I partners, because I really do believe that these have to be strong relationships. We put a lot of thought and energy into making it seamless, but nonetheless, it’s a new thing, but we’re really looking to work with them to help guide our roadmap. We have the example I gave about diabetic retinopathy screening is something that comes with a lot of organic conversations on what people want to see, or in the interim between here and an autonomous AI to build the comfort level by sort of showing a little bit here is what an annotation tool would do. This is the type of thing that the algorithm uses.

Building tools and features alongside our partners, and more, I’ll say progressively, automating things in the workflow, adding the explainability, building the trust. Progress happens at the speed of trust, especially in healthcare. So that’s helping patients. We certainly are going to continue with our community screenings, and the team is super excited to see more of an impact where we are having real patient success stories. We’re starting to get some clinical data in showing that making this device very easy to use does improve compliance, getting some of those proof points that we need to build. They’ll call it the, the baseline for the next steps, while we’re also refining our roadmap for more AI products and features

MR: You mentioned earlier, the retina and the eye being kind of this window to other systemic diseases. How could that play a role in, not only, in the AI algorithms, but branching out for that level of trust with other specialties?

Demas: There has been a ton of literature on the space speaking about, I’ll call them systemic biomarkers that we as humans understand. I think we would start with something like that. For example, you know some of the original publications from Google, they would speak about vessel density, tortuosity, like a-to-v ratio, as examples of cardiovascular risk markers. So obviously that is in a very academic way, saying, here are some features. There’s not much to substitute for. We have to run studies now. The benefit of having a first use case that can help a lot of patients, that there is this huge unmet need. If we think of patients living with diabetes, that’s a huge population, and they have increased risk for cardiovascular disease, for hypertension. So those are areas of focus for us, as we’re thinking about next steps.

There’s a lot of data that we can leverage already. But in real life, we could be collecting the data. We need to actually build that body of evidence. There’s no substitution for real data, real studies to prove that we actually have a way to really access information, non-invasively.



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Maritime Networks Show Boards How To Navigate AI Governance

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When boards grapple with AI governance today, they often feel they’re navigating uncharted waters. But we’ve sailed these seas before. Five centuries ago, maritime networks created the world’s first global information superhighway, transforming how value was created, managed, and measured. The governance lessons from that era offer a strategic blueprint for today’s C-suite leaders managing AI transformation. As Forbes has noted, boards must navigate AI governance in an uncertain regulatory environment, making historical precedents increasingly valuable.

Between 1400 and 1700, maritime innovations didn’t just change transportation—they fundamentally reshaped business models, workforce development, and financial systems. The parallels to today’s AI revolution are striking, and the governance implications are clear: organizations that treat AI as merely a technology deployment will miss the strategic transformation it demands.

The Original Platform Economy: Governance Lessons from Maritime Networks

Modern boards often view AI through the lens of operational efficiency. History suggests this misses the point entirely. The Dutch East India Company (VOC), founded in 1602, understood that maritime technology wasn’t just about better ships—it was about creating entirely new organizational structures.

The VOC pioneered what we’d now recognize as platform governance: standardized global processes, the world’s first modern stock exchange for capital formation, complex multi-continental logistics networks, and hybrid workforce models that mixed employees with contractors. Most importantly, they created compensation structures that aligned individual performance with enterprise returns—paying workers modest wages plus profit shares.

This wasn’t just innovative management; it was strategic governance that recognized foundational technology requires fundamental changes to how organizations create and capture value. Today’s boards face an identical challenge with AI.

Human Capital as Strategic Asset: Then and Now

The maritime revolution created entirely new professional categories that hadn’t existed before: navigators who mastered complex mathematical calculations, cartographers who combined technical precision with creative insight, and insurance underwriters who developed sophisticated risk assessment capabilities.

Traditional roles didn’t disappear—they evolved. Local traders expanded their capabilities to operate globally. Ship captains transitioned from operational roles to complex management positions overseeing intercontinental operations. Craftsmen upskilled to work with new materials and production methods.

The key insight for today’s CHROs and CFOs: successful maritime powers invested systematically in workforce transformation. Spain’s Casa de Contratación created standardized navigator certification programs—perhaps history’s first technical bootcamp. Maritime academies proliferated across Europe, teaching navigation, cartography, and global commerce.

This systematic approach to skills development wasn’t a cost center—it was a strategic investment that enabled competitive advantage. The same principle applies to AI transformation today. As Forbes has highlighted, human capital is the ultimate differentiator in technological transformations.

Financial Governance: Measuring Maritime ROI vs. AI ROI

The governance challenge boards face with AI mirrors what maritime-era leaders confronted: how do you measure returns on transformational technology?

Historical data reveals striking patterns:

  • Trade volumes increased tenfold between 1400-1700
  • Spice prices in European markets dropped 70% due to transportation efficiency
  • Port cities like Amsterdam experienced 400% population growth
  • Specialist navigators earned wage premiums of 3-4x typical artisan compensation

Today’s AI metrics show remarkably similar patterns:

  • McKinsey reports AI can drive 23% average productivity improvements
  • AI specialists command 35-50% wage premiums above traditional technical roles
  • Organizations implementing AI systematically see measurable improvements in operational efficiency and revenue growth

The critical governance lesson: early adopters rarely dominate technological revolutions. Systematic adapters do. AI implementation success comes from systematic approaches, not speed. The Portuguese developed superior maritime technology first, but the Dutch built superior organizational systems around that technology and ultimately dominated global trade. AI implementation success comes from systematic approaches not speed!

Three Governance Imperatives for AI Leadership

Maritime history reveals three essential governance principles that apply directly to AI transformation:

1. Ecosystem Investment Over Technology Investment

Maritime success required more than better ships. It demanded navigation schools, financing mechanisms, legal frameworks, and insurance markets. Similarly, successful AI implementation requires governance ecosystems: training programs, ethical frameworks, data infrastructure, and risk management protocols.

Boards must ask: Are we building AI capability or AI ecosystems? The former leads to pilot projects that don’t scale. The latter creates sustainable competitive advantage.

2. Balanced Risk Management

Thriving maritime nations balanced protection of existing industries with incentives for innovation. England’s Navigation Acts protected domestic shipping while encouraging new ventures. Dutch financial innovations managed risk while enabling new business models.

Today’s boards need similar balanced approaches to AI policy. This means establishing governance frameworks that both protect against algorithmic bias and legal exposure while enabling workforce augmentation and operational innovation.

3. Systematic Human Capital Development

The most successful maritime powers created formal institutions for skills development. They recognized that technological advantage comes from human capability, not just technical capability.

CHROs and boards must treat AI literacy as a strategic imperative, not a training afterthought. This means creating systematic development programs, tracking human capital ROI alongside AI ROI, and ensuring that workforce transformation supports rather than undermines organizational resilience.

Measuring What Matters: Human Capital ROI in the AI Era

The SEC’s enhanced human capital disclosure requirements under Reg S-K Item 101(c) reflect growing recognition that workforce strategy is material to enterprise value. Maritime-era governance offers a template: track both technological adoption and human adaptation with equal rigor.

Key metrics should include:

  • AI-human collaboration effectiveness, not just automation rates
  • Internal mobility and reskilling success rates
  • Innovation pipeline strength as AI augments human creativity
  • Employee engagement and retention during technological transition

These aren’t “soft” HR metrics—they’re predictive indicators of sustainable competitive advantage.

The Governance Imperative: Leadership in Transformation

History’s lesson is unambiguous: technological revolutions reward systematic adapters, not early adopters. The Portuguese pioneered maritime technology but the Dutch mastered maritime governance.

For today’s boards, this means treating AI not as an IT project but as a governance challenge that spans strategy, finance, and human capital. Success requires CHROs and CFOs working in concert to ensure AI enhances rather than erodes organizational capability.

The organizations that emerge stronger from AI transformation will be those that remember what maritime history teaches: technology alone never changes the world. People, institutions, and governance do.

Author Note: This column builds on collaborative research with Stela Lupushor examining historical patterns in technological transformation and their implications for modern workforce strategy.



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