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AI Projects Need More Than One Model: The Rise of Multi-Step, Multi-Model AI Architectures

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When organizations begin experimenting with generative AI, the first question is usually straightforward:

“Which model should we use?”

It is a reasonable question, but increasingly it is the wrong one.

The more important question is:

“How should the work be structured?”

Enterprise AI initiatives are moving beyond the assumption that a single, all-purpose large language model should perform every task. Instead, organizations are beginning to architect AI systems as coordinated workflows in which different models, tools, retrieval systems, validation routines, and human reviewers perform distinct stages of a larger process.

The result can be better quality, lower operating costs, stronger governance, and systems that scale more effectively than a single-model approach.

For supply chain organizations building AI-powered applications, this architectural shift may prove more important than the next incremental improvement in any individual model.

From Prompts to Production Systems

Many AI projects begin with a single prompt.

A user asks a model to summarize a report, generate software code, analyze supplier data, or write an article.

For relatively simple tasks, this approach can work well.

Enterprise work, however, rarely consists of a single task.

Building a supplier directory, generating market research, analyzing transportation networks, reviewing contracts, producing executive reports, or monitoring supplier risk involves several different activities. These may include research, retrieval, data normalization, synthesis, validation, editing, quality assurance, formatting, and final approval.

Asking one model to perform every stage in a single pass often produces inconsistent results. It can also consume more computing resources than necessary because the most capable model is being used for tasks that may not require its full reasoning or generation capacity.

Instead of relying on one large prompt, organizations are increasingly decomposing complex work into a series of bounded stages.

Why Specialization Wins

Manufacturing long ago learned that specialized production lines outperform a single worker attempting to build an entire product.

The same principle increasingly applies to artificial intelligence.

One model may be well suited to extracting facts from structured documents.

Another may be better at generating readable narrative.

A third may specialize in reasoning through contradictions or identifying missing information.

A deterministic rules engine may be more reliable than any language model for checking required fields, formats, thresholds, or business constraints.

A final model may improve clarity, tone, and structure before the output reaches an executive, customer, or operational user.

Rather than expecting one model to perform every function equally well, enterprises can assign each stage of the workflow to the component best suited for that task.

The result is often higher-quality output with greater consistency and clearer accountability.

A Typical Enterprise AI Workflow

A modern AI pipeline might resemble the following:

Research and Retrieval

Gather enterprise data, internal documents, databases, operational records, and approved external sources.

Structured Knowledge Package

Organize facts, entities, references, relationships, and metadata into a standardized research packet.

Content or Analysis Generation

Produce the initial draft, recommendation, classification, risk assessment, software artifact, or analytical output.

Validation and Quality Assurance

Verify facts, identify omissions, test business rules, check consistency, flag unsupported conclusions, and ensure compliance with organizational standards.

Editorial or Decision Refinement

Improve readability, organization, tone, logic, and executive relevance.

Publication or Execution

Deliver the finished report, system recommendation, software component, workflow action, dashboard, or customer communication.

Each stage performs a distinct responsibility rather than forcing one model to handle the entire workload.

Complexity Must Be Earned

Multi-step architecture is not free.

Every handoff introduces additional latency, monitoring requirements, and another potential failure point. More models can mean more orchestration logic, more testing, more observability requirements, and more opportunities for errors to propagate between stages.

The goal is not to maximize the number of models, agents, or workflow steps.

The goal is to separate work only where specialization, validation, governance, or cost control produces a measurable advantage.

Simple tasks should remain simple.

Complex workflows should earn their complexity.

In some cases, one strong model connected to the right tools and governed by deterministic checks will be sufficient. In other cases, particularly where the work involves multiple data sources, high-volume processing, consequential decisions, or formal review requirements, a multi-step, multi-model architecture may be more effective.

Lower Cost Without Sacrificing Quality

This architecture offers another significant advantage: cost optimization.

Frontier models generally carry higher inference costs than smaller models, particularly when applied repeatedly across high-volume workflows.

Using the most capable model for every step can become prohibitively expensive for organizations generating thousands of supplier profiles, reports, software components, knowledge articles, forecasts, or risk assessments.

Instead, enterprises can reserve their most capable models for the stages where additional reasoning depth or communication quality creates the most value.

These may include:

complex reasoning,

strategic analysis,

exception resolution,

executive communication,

and final editorial review.

Smaller or less expensive models can often meet the required performance threshold for bounded, structured tasks such as:

information extraction,

classification,

metadata generation,

entity normalization,

outline creation,

initial drafting,

and routine transformation.

The key is not to use the least expensive model available.

It is to use the least expensive model that can reliably meet the performance requirement for that stage.

Matching model capability to task complexity can reduce operating costs while preserving output quality.

The Token Problem

The cost issue becomes more important as enterprise workflows grow.

Every system instruction, user prompt, retrieved document, prior interaction, intermediate output, validation pass, and final response consumes tokens.

In a simple chatbot interaction, token usage may be modest.

In a production workflow, token consumption can multiply quickly. A system may retrieve several documents, pass them into a reasoning model, generate a draft, submit that draft to a second model for validation, return flagged issues to the original model, and then send the revised output through a final editorial stage.

The problem is not that multi-step workflows inherently consume fewer tokens.

Poorly designed workflows can consume more.

The advantage comes from controlling which information reaches each stage, limiting unnecessary context, using structured intermediate outputs, routing routine tasks to efficient models, and reserving expensive reasoning for the portions of the process that require it.

The emerging token constraint is therefore not simply a pricing problem.

It is an architectural problem.

Better Governance and Explainability

Breaking work into discrete stages also improves governance.

Each phase can be independently reviewed, tested, monitored, and audited.

Organizations gain visibility into:

where information originated,

which sources were retrieved,

how conclusions were generated,

which model or tool performed each step,

what validation rules were applied,

where human review occurred,

and which component introduced an error.

This is much more difficult when one model receives a large prompt and produces a final answer through an opaque, single-pass process.

A modular approach also allows organizations to define different controls for different stages.

For example, a retrieval stage may require approved sources and access controls. A generation stage may require grounded outputs. A validation stage may apply business rules and evidence thresholds. A publication stage may require human approval before a recommendation becomes operational.

This architecture aligns well with emerging enterprise AI governance requirements and helps organizations build trust in AI-assisted decision-making.

Why This Matters for Supply Chains

Supply chains generate enormous volumes of heterogeneous information.

Supplier profiles.

Transportation records.

Inventory positions.

Contracts.

Purchase orders.

Regulatory documents.

Market intelligence.

Forecasts.

Product hierarchies.

Facility data.

Risk signals.

Planning scenarios.

No single AI model can reliably process all of these inputs while simultaneously resolving entity mismatches, reasoning across dependencies, applying business rules, checking evidence, and producing polished executive-level analysis.

Consider supplier-risk intelligence.

One component may retrieve supplier master data, shipment history, financial disclosures, sanctions data, quality records, geographic exposure, and recent news.

A second model can normalize those inputs into a structured supplier record.

A reasoning model can identify dependencies, concentration risks, and potential disruption pathways.

Deterministic rules can verify required fields, check thresholds, and flag unsupported conclusions.

A final model can translate the findings into an executive-level risk brief.

Human reviewers remain responsible for consequential sourcing or supplier-management decisions.

This is not one model answering one prompt.

It is a governed production system in which each component has a defined role.

The same pattern can apply to transportation planning, trade compliance, warehouse operations, demand forecasting, supplier discovery, market research, and exception management.

From Point Solutions to AI Production Lines

This shift changes how enterprises should evaluate AI investments.

The focus should not be limited to benchmark scores or the perceived intelligence of an individual model.

Organizations should also evaluate:

workflow design,

model-routing logic,

retrieval quality,

context management,

validation methods,

observability,

error recovery,

human review,

and overall cost per completed task.

A slightly less capable model operating within a well-designed system may outperform a more powerful model operating without structure, reliable data, or quality controls.

The competitive advantage may therefore come less from access to a particular model and more from the ability to assemble models, tools, data, and governance into a dependable production process.

The Next Evolution

Multi-step, multi-model workflows are also converging with a broader set of enterprise AI technologies.

Retrieval-Augmented Generation grounds models in approved enterprise knowledge and current external information.

The Model Context Protocol provides a standardized method for connecting AI applications to external data sources, tools, and workflows.

Agent-to-Agent protocols allow independently developed agents to exchange information and coordinate work.

Knowledge graphs and Graph RAG add relational context for reasoning across suppliers, products, facilities, shipments, regulations, contracts, and risks.

These technologies are related, but they serve different purposes.

A workflow defines how work moves through a system.

Model routing determines which model performs each task.

RAG supplies relevant knowledge.

MCP connects models and applications to tools and data.

A2A supports coordination among agents.

Graph RAG helps the system reason across relationships and dependencies.

Together, they allow enterprises to move beyond isolated AI tools toward systems that can retrieve, reason, validate, coordinate, and act within defined governance boundaries.

The Bottom Line

The future of enterprise AI will not be defined solely by who has the largest language model.

It will be defined by who designs the best AI architecture.

Organizations that combine specialized models, deterministic controls, retrieval systems, and human oversight into coordinated workflows can achieve better quality, lower costs, greater transparency, and systems capable of scaling across thousands of business processes.

The winning architecture will not always be the most complex.

It will be the one that applies the right level of intelligence, validation, and control to each stage of the work.

For supply chain leaders, the competitive advantage may no longer come from selecting the “best” model.

It may come from building the best team of models.

The post AI Projects Need More Than One Model: The Rise of Multi-Step, Multi-Model AI Architectures appeared first on Logistics Viewpoints.

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From Prompting to Persistent Decision Workflows in Supply Chain Operations

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Supply-chain AI is moving from episodic prompting toward persistent decision workflows. Repeated prompting can help an analyst solve a problem, but an operating capability must maintain context, monitor changing state, preserve decision logic, and connect recommendations to the work that follows.

A persistent decision workflow needs memory of the business object, the current plan, previous recommendations, overrides, policies, and outcomes. Without that continuity, users repeatedly reconstruct context and the model cannot reliably distinguish a new exception from a continuation of an old one. This persistence requirement becomes more important as the AI-agent execution model advances, because an agent cannot act safely if each interaction starts without durable operating state or prior decision context.

A mature design connects detection, context assembly, analysis, option generation, recommendation, approval, execution, and feedback. Some stages may use generative AI; others are better handled by optimization, rules, deterministic integrations, or human judgment. Persistence comes from the workflow and state model, not from the conversational interface.

The system should know what it may observe, recommend, prepare, execute, and escalate. Financial thresholds, customer impact, reversibility, confidence, and policy can determine the autonomy level. These controls make repeated decisions governable at scale.

ERP, planning, TMS, WMS, visibility, risk, and network platforms remain systems of record and execution; decision intelligence sits above and across them where context is assembled, tradeoffs are evaluated, actions are prioritized, and responses are coordinated. The persistent workflow therefore needs controlled write-back or action mechanisms, not only read access and summarization.

A decision workflow should record recommendations, human overrides, actions, and results. That creates an evidence base for improving rules, models, prompts, and autonomy thresholds. A chat transcript alone is not an operating learning system.

The architectural shift is from asking AI for help to designing a governed process in which intelligence participates continuously. That is a much stronger foundation for supply-chain decision support than repeated prompting.

Persistent decision workflows need memory and governance

A durable decision workflow has to preserve operating state across time. It should retain the event, relevant context, alternatives, constraints, prior decisions, approvals, overrides, actions, and outcomes so that the next step does not depend on a user reconstructing the problem in a new prompt. That persistence is what turns AI assistance into an operational capability.

Buyers should test continuity across handoffs. Can the system resume an unresolved decision after new data arrive? Can a different user see why an option was rejected? Can an agent act only within encoded authority? Can the resulting transaction be traced back to the evidence and rule that produced it? These are architecture questions, not user-interface questions.

Persistence changes the economics of decision support

When a workflow is persistent, the organization stops paying the same context-assembly cost every time a decision changes hands. New events can be evaluated against the existing state, prior alternatives remain visible, and approvals or overrides do not have to be reconstructed from email or chat history. That can reduce decision latency while improving traceability. It also creates a better foundation for automation because the system can distinguish a new decision from a continuation of an existing one. Buyers should therefore evaluate memory, state management, versioning, and auditability as operating capabilities rather than treating them as secondary AI features.

The 2026 Market Map is designed to help organizations understand the structure of the Decision Intelligence market, evaluate provider differences, and identify the capabilities most relevant to their operating environment. If your organization is evaluating Decision Intelligence platforms or clarifying where decision intelligence fits within the broader technology architecture, I would be glad to provide the Market Map brochure and discuss the evaluation questions and provider differences most relevant to your requirements.

Request the Decision Intelligence Market Map Brochure

For technology providers

Providers may request the brochure, discuss the research framework, or contact me to confirm how their capabilities are represented in the market assessment.

Discuss the research or confirm your profile

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Why SKU Selection Can Make or Break an AS/RS Business Case

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Why Sku Selection Can Make Or Break An As/rs Business Case

Automated Storage and Retrieval Systems (AS/RS) have become a cornerstone of modern warehouse automation strategies. Whether the technology involves shuttles, cube-based systems, cranes, or goods-to-person solutions, the business case is typically built around a common set of objectives: increasing throughput, reducing labor requirements, improving accuracy, and maximizing storage utilization. Yet one of the most important decisions in any AS/RS implementation often receives far less attention than the technology itself: SKU selection.

Companies frequently spend months evaluating vendors, software platforms, and automation architectures. However, even the most advanced AS/RS can fail to deliver expected returns if the wrong products are placed into the system. In many cases, the difference between a highly successful deployment and a disappointing investment comes down to a simple question: Which SKUs should be automated?

The Purpose of AS/RS Is Productivity, Not Storage

One of the most common misconceptions about AS/RS is that its primary purpose is to store inventory. While increased storage density is certainly a benefit, the real value of automation lies in improving warehouse productivity.

AS/RS creates value by reducing manual labor associated with inventory handling. Every automated retrieval eliminates walking, searching, traveling, and material movement. The more frequently a product is handled, the greater the opportunity for automation to generate measurable savings.

This is where SKU velocity becomes critical.

Not all inventory contributes equally to warehouse activity. In most distribution centers, a relatively small percentage of SKUs generates a disproportionately large percentage of order lines, picks, and replenishment activity. These high-velocity items create the majority of warehouse work and therefore present the greatest opportunity for automation.

Why High-Velocity SKUs Belong in AS/RS

The strongest AS/RS business cases are generally built around automating the products that move most frequently.

Consider two products:

SKU A is picked 2,000 times per week.

SKU B is picked 10 times per month.

Both consume storage space within the AS/RS, but only one generates meaningful operational value.

Every time SKU A is automatically retrieved, labor is eliminated and productivity improves. Over the course of a year, those savings accumulate rapidly. SKU B, on the other hand, occupies valuable automated storage capacity while contributing very little to throughput improvement or labor reduction.

Simply put, high-velocity SKUs produce the transactions that justify the investment.

When organizations prioritize their fastest-moving inventory for AS/RS storage, they maximize:

Labor savings

Pick productivity

Throughput performance

Equipment utilization

Return on investment

This is why leading warehouse operators often use ABC inventory analysis to determine AS/RS eligibility, with A-items receiving priority placement within the automated system.

The Hidden Cost of Selecting the Wrong SKUs

Many automation projects encounter challenges not because the technology underperforms, but because the SKU strategy was flawed from the start.

A common mistake is attempting to place too many slow-moving products into the AS/RS simply because capacity is available. While this may increase storage utilization, it often reduces economic utilization.

An AS/RS filled with low-velocity inventory can create several problems:

Lower Labor Savings

Products that rarely move generate few picking events. As a result, automation replaces little labor activity, weakening the original business case.

Reduced Throughput Benefits

System resources become occupied storing inventory that contributes minimally to order fulfillment activity, limiting the throughput impact of the investment.

Longer Payback Periods

If labor savings and productivity gains fall below projections, the expected payback period can extend significantly beyond the original ROI model.

Capacity Constraints

As demand grows, operators may discover that high-velocity items no longer have sufficient space within the AS/RS because slower-moving products are consuming capacity.

The technology itself may be performing exactly as designed, but the financial return can still disappoint.

Focus on Activity, Not SKU Count

One of the most important lessons for warehouse leaders is that AS/RS success should not be measured by the number of SKUs stored within the system.

Instead, it should be measured by the percentage of warehouse activity flowing through the system.

For example, placing 1,000 high-velocity SKUs into an AS/RS that captures 80% of total picking activity will typically generate greater value than storing 5,000 SKUs that account for only 40% of picks.

The goal is not to automate the greatest amount of inventory.

The goal is to automate the greatest amount of work.

That distinction has significant implications for system utilization and overall project economics.

The Importance of Continuous SKU Evaluation

SKU selection should not be treated as a one-time exercise conducted during system commissioning.

Demand patterns change. Product popularity shifts. New items are introduced while others decline.

As a result, warehouse operators should periodically re-evaluate which products belong inside the AS/RS. High-velocity inventory today may not be high-velocity inventory next year.

Organizations that continuously align automated storage capacity with current demand patterns are often able to sustain higher utilization rates and stronger ROI throughout the life of the system.

ROI strategy

Consider a simple ROI example. Assume a company invests $5 million in an AS/RS and expects to save $1 million annually through labor reduction and productivity improvements. The original business case assumes the system will handle 75 percent of warehouse picking activity.

If the company correctly slots high-velocity products into the system, the projected labor savings can be achieved, resulting in a payback period of approximately five years. However, if management fills a large portion of the AS/RS with slow-moving inventory, the system may only process 40 percent of warehouse picking activity. Annual savings could fall to $600,000, extending the payback period from 5 years to more than 8 years. The technology has not failed. The SKU strategy has.

Final Thoughts

AS/RS technology continues to play an increasingly important role in warehouse automation strategies. Yet successful implementations depend on much more than selecting the right hardware or software platform.

The most effective AS/RS deployments are built around careful SKU selection.

High-velocity products generate the majority of warehouse activity and therefore create the greatest opportunity for labor reduction, throughput improvement, and productivity gains. Conversely, filling automated systems with low-velocity inventory can significantly dilute returns and extend payback periods.

For warehouse and supply chain executives, the takeaway is straightforward: an AS/RS should be designed around activity, not occupancy. The objective is not simply to store products in an automated system. The objective is to automate the work that drives operational performance. In most facilities, that means ensuring the highest-velocity SKUs receive priority access to valuable AS/RS capacity.

The difference between a successful automation investment and an underperforming one may ultimately come down to a decision that appears deceptively simple: choosing the right SKUs.

The post Why SKU Selection Can Make or Break an AS/RS Business Case appeared first on Logistics Viewpoints.

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What the Descartes Innovation Forum Said About the Next Phase of Logistics Execution

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After several days at the 2026 Descartes Innovation Forum, the clearest takeaway was not simply that artificial intelligence is coming to logistics. That part is already obvious. What stood out more was where the technology is moving and why it matters now.

Across the keynote, a transportation leadership panel, a Walmart Marketplace session, and a detailed discussion of carrier fraud, the same operating problem kept surfacing in different forms. Logistics organizations have more data, more applications, more connectivity, and increasingly more AI, but the real value comes when those capabilities help someone make a better decision or execute the next step faster, more reliably, and with the right controls in place.

That matters because the operating environment is not getting easier. Transportation capacity is tightening, rates and fuel costs remain under pressure, fraud and cargo theft are serious concerns, customer expectations continue to rise, and companies are being asked to improve productivity without adding equivalent labor. Against that backdrop, the most interesting technology at the Forum was not technology that simply explained what was happening. It was technology aimed directly at the work itself.

The Swivel-Chair Problem Is Still Real

Descartes opened the Forum with a problem that will sound familiar to anyone who has spent time inside transportation operations. Companies may have capable systems and extensive networks, yet much of the actual work still happens in the gaps between those systems.

Someone receives an email, opens a portal, checks a transportation system, moves to another application, sends a message, waits for a response, updates a record, and then starts the process again somewhere else. Descartes referred to this as the “swivel chair tax,” and the phrase worked because it described a problem technology has never fully eliminated.

The company’s answer is its Agent Control Plane, which is designed to expose capabilities from Descartes applications as skills that AI agents can use. As I covered earlier in Descartes Takes Agentic AI Into the Logistics Workflow at the Descartes Innovation Forum, Descartes was careful to distinguish that approach from a basic chat interface or a traditional workflow engine. The intent is to allow agents to work across applications and adapt as conditions change rather than simply follow a rigid sequence of predefined screens.

The live demonstration made the concept more tangible. Descartes followed an order across four representative companies—a retailer, freight forwarder, customs broker, and final-mile provider—with 15 Descartes products supporting 28 process steps behind the Agent Control Plane. Many of those steps happened without requiring a person to manually move information from one application to another.

What stood out to me was not the amount of automation. It was where Descartes chose not to automate.

At one point, an agent identified a carrier option that could save roughly 8 percent. The carrier, however, had a poor trust score, thin operating history, and other warning signs. Rather than make the lower-cost choice automatically, the system surfaced the decision for human review. The human declined the cheaper carrier.

That is a much more practical model for agentic AI in logistics than the idea of simply handing an operating process over to a machine. Descartes repeatedly described autonomy as a dial, not a switch. Agents have identities, their actions are logged, activity can be replayed, and organizations can determine which decisions require human approval.

The significance is straightforward. Once AI begins taking actions inside real operating processes, governance stops being an abstract IT issue and becomes part of the operating model.

The Market Is Making Better Execution More Valuable

The transportation leadership panel I moderated later in the Forum put that technology discussion into a much tougher operating context.

The freight market described by the panelists was not one of strong demand and easy growth. It was one in which relatively weak demand is colliding with meaningful reductions in capacity. One participant cited a decline in the number of trucking companies from roughly 340,000 to 282,000 and dry-van truckload rates up approximately 33 percent year over year. The larger point was that the conversation has shifted. Two years ago, shippers were largely focused on rates. Today, capacity availability and reliability matter much more.

That tighter environment also increases risk. When capacity is harder to find, there is greater temptation to use carriers that may not have passed the same diligence in a looser market. Panelists tied that pressure to growing concerns around freight fraud, cargo theft, safety, insurance, litigation, and carrier qualification.

As discussed in Transportation Leaders See AI Moving From Experiment to Operating Model at the Descartes Innovation Forum, the response is not simply to cut spending. Technology did not sound discretionary in this discussion. One participant described a single repetitive business activity being performed roughly 750,000 times per month, representing the equivalent of about 1,500 employee-hours per day. That is exactly the kind of workload where automation can move from being interesting to economically significant.

The panel also showed how quickly expectations around technology development are changing. Voice agents, email automation, operational workflows, data science, and agentic AI were all discussed as practical tools rather than distant possibilities. One participant described a proprietary TMS containing more than 30 million lines of code and roughly 2,000 database tables. A 12-person team working with AWS and Anthropic was then tasked with recreating the system using AI-assisted development and reportedly produced a replication in approximately six weeks.

Replicating a system is not the same as proving it in full production, so that example deserves some caution. Still, it shows how quickly the economics of software development may be changing.

Transportation technology has traditionally changed slowly because systems were complex, deeply integrated, and expensive to modify. AI may compress that cycle dramatically. For transportation leaders, that creates an interesting tension: the operating environment is getting harder at the same time that the technology available to respond to it is improving faster.

Walmart Brought the Conversation Back to the Customer

A Walmart Marketplace session provided a useful counterweight to the AI-heavy discussions elsewhere at the Forum. Bryce Caswell, Director of Ship with Walmart for Walmart Marketplace, focused on something much more basic: the customer promise.

Walmart described four foundations for marketplace success—assortment, listing quality, pricing, and shipping—and emphasized that the four are interdependent. Good assortment will not solve poor content. Good content will not offset uncompetitive pricing. And none of it matters if the seller cannot deliver the product when promised.

That may sound obvious, but it was one of the more useful reminders of the Forum. Logistics technology discussions can quickly become dominated by architecture, optimization, visibility, and AI. The customer evaluates something much simpler: did the order arrive when you said it would?

As I wrote in Walmart Is Turning Marketplace Logistics Into a Platform, Walmart’s emphasis was not simply on speed. Reliability and consistency mattered just as much. During holiday peaks, sellers were encouraged to protect inventory availability, leave enough time to move product into the fulfillment network, understand what they are promising, and then meet that promise.

The company is also trying to simplify the mechanics underneath that promise. Walmart Fulfillment Services provides pick, pack, and ship capabilities through Walmart’s fulfillment network, while its multi-channel model allows sellers to support multiple sales channels from a single inventory pool.

Ship with Walmart extends that logic into transportation by offering access to negotiated carrier rates, including national, regional, and LTL options, while adding certain protections around on-time delivery and lost shipments.

The larger point is that simplification has value only if it improves execution. Whether the tool is an AI agent or a fulfillment network, the objective is the same: remove unnecessary friction so people can focus on the decisions and exceptions that actually matter.

Fraud Changes the Meaning of Visibility

The Forum’s carrier fraud session added another layer to the discussion because it showed how operating data is being repurposed for trust.

Descartes demonstrated how MyCarrierPortal and MacroPoint can be used together to strengthen carrier vetting before a load is tendered. The process extends beyond checking insurance or basic carrier status. It can incorporate configurable risk assessments, tracking history, lane history, inspection information, validated users, equipment data, and driver-level tracking statistics.

That is a subtle but important shift in how transportation visibility data is used. Historically, tracking information primarily answered a familiar question: where is my load? Increasingly, that same information can help answer a different question: should I trust the party moving it?

The same theme runs through Descartes Expands Freight Fraud Prevention Across Carrier Vetting and Shipment Execution. Descartes showed how historical lane activity and tracking behavior can be used as additional carrier-vetting signals. Once a shipment is in transit, the Notification Center can surface route deviations and other exceptions that warrant attention without requiring someone to monitor every load manually.

ELD Plus adds another layer by allowing two tracking sources to be used within the same tracking session. If mobile-device data and telematics data begin to diverge, that mismatch becomes a signal that someone may need to investigate.

Carrier lookup goes further by combining information such as power units, active loads, tracking history, spoofing flags, and recent lane activity. The example used during the session was simple: if a carrier has 100 power units but appears to be active on 600 loads, that discrepancy may deserve a closer look.

More automation does not reduce the need for trust. It raises the stakes. If systems are going to make recommendations or take actions faster, the quality of the signals behind those decisions becomes even more important.

Execution Is Becoming the Real Battleground

Looking back across the Forum, I do not think the central story was simply AI. It was execution.

Descartes is trying to reduce the swivel-chair work that still exists between logistics applications and companies. Transportation leaders are looking for technology that can improve productivity and help them operate through a tighter, riskier freight market. Walmart is focused on simplifying fulfillment so sellers can keep the customer promise. Carrier-verification tools are turning tracking data into a source of trust as well as visibility.

Put together, that points to a broader shift in logistics technology. Software is moving closer to the actual transaction, the actual decision, and the actual exception. The value of that technology will increasingly be judged by whether it helps organizations act better, not simply see more.

The companies that benefit most will not necessarily be the ones with the most AI, the most dashboards, or the most data. They will be the ones that can connect intelligence to execution without losing control of the process.

For me, that was the real takeaway from the 2026 Descartes Innovation Forum. The next phase of logistics technology is not just about making systems smarter. It is about knowing when the system should act, when a person should decide, and how to make both work together fast enough to keep freight moving and the customer promise intact.

The post What the Descartes Innovation Forum Said About the Next Phase of Logistics Execution appeared first on Logistics Viewpoints.

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