For decades, routing technology has been built on a simple assumption: incremental hardware improvements will continue to deliver better optimization results. That assumption no longer holds. As fleet operations grow more complex and cost pressures intensify, traditional routing engines are struggling to keep pace.
Now, a new generation of routing platforms is fundamentally changing what is possible.
The Limits of Traditional Routing and Scheduling Technology
The promise of “more computing power equals better optimization” quietly stopped being true years ago. These traditional systems, which are rooted in CPU-based hardware (Central Processing Units), result in optimization engines that take too long to run, limit multiple scenario testing, and force planners to settle for “good enough” routes.
Routing and scheduling problems have historically been computationally intensive, testing the limits of even the latest CPUs. Over time, operational complexity exploded. Modern fleet routing must account for a growing number of variables and constraints: driver hours, equipment types, service windows, customer requirements, and tight order cut-off times. Traditional CPU-based solvers, once sufficient, have long since hit a point of diminishing returns, while also being asked to solve for increasingly difficult routing problems.
To compensate, shippers and fleet operators have responded by adding constraints, taking shortcuts, and instituting manual workarounds to ensure routes can be built and dispatched on time. Fixed routes, restrictive territories, and predefined stop sequences are commonly deployed.
All of this is occurring in a cost environment that has seen the largest increases in overall costs in twenty years. In the U.S., average fleet cost per mile has increased 43% since 2020, reaching $2.34 in 2025 – and significantly higher for local and regional multi-stop networks. When optimization speed and quality cannot keep up with the growing demands of today’s fleets, significant dollars are spent compensating for the gaps.
When Process Compensates for Technology Gaps
For many organizations, routing processes have quietly been redesigned around the limitations of their technology. If an optimization run takes 30 minutes, operations teams usually cannot afford to rerun it when conditions change. This is particularly true in industries with very strict order cut-offs or can improve sales by accepting late orders. Instead, they adapt by:
- Using fixed routes instead of dynamic routing
- Making manual adjustments after optimization runs
- Relying on tribal knowledge to “fix” routes
- Limiting continuous improvement
The hidden cost is not just higher miles or increased resources. Lack of agility leads to slow optimization, forcing operations teams to manually respond to late orders, resource changes, weather events, and service failures. Failed or delayed optimization runs can trigger last-minute scrambles just to get viable routes out the door.
Over time, these compromises become normalized and even expected. Fleets accept higher costs because the alternative—waiting for optimization to finish—is operationally unacceptable.
A New Approach: Next Generation Routing and Scheduling Technology Using Graphics Processing Units (GPUs)
The breakthrough comes from rethinking the computational approach entirely. Next generation routing platforms leverage advanced processing architectures that can evaluate thousands of routing scenarios simultaneously, solving complex vehicle routing problems in seconds rather than minutes or hours.
Chora, developed by Opsi Systems, is the prime example of this new generation of advanced routing solutions. Built natively on GPUs, Opsi uses NVIDIA CUDA and modern optimization algorithms and computational architecture to deliver a fundamental shift in optimization performance. The net result is a platform that can solve even the most complex vehicle routing problems in seconds rather than minutes or hours.
This is a major advancement that addresses a core limitation that has constrained fleet operations for years: the tradeoff between solution quality and speed. Rather than cutting corners and simplifying assumptions, leveraging the advances in GPUs can solve for all operational requirements in less time and with higher quality results.
What Faster Optimization Really Unlocks
The most immediate impact of GPU-based routing technology is speed – but the real value is what that speed enables.
Independent analysis indicates significant improvements:
- 10–25x faster optimization runs compared to traditional routing engines
- 3–7% improvement in total distance
- Reduced resource counts in certain scenarios
Learn more about the improvements GPUs enable in our whitepaper, Beyond the Limits of Traditional Optimization.
These values are not marginal. A few percentage points of distance reduction, applied daily across a fleet, translates into meaningful cost savings, lower emissions, and improved asset utilization.
The much quicker optimization time – yes, optimization speed that equates to 90% or faster – allows planners to explore tradeoffs that were previously impractical in many transportation operations:
- Extending or compressing driver workdays
- Widening dispatch windows
- Supporting multiple equipment types with location-specific constraints
- Incorporating traffic and rush hour realities
- Comparing cost efficiency against driver quality-of-life outcomes
Instead of locking into a single optimization objective, fleets can evaluate multiple scenarios and policies, choosing the one that best balances cost, service, and driver satisfaction. These are not just incremental improvements – this new generation of routing technology represents a seismic shift that should make shippers reconsider dynamic routing within all or a portion of their operations. Any scenarios where run-time concerns or overall operational complexity are the primary limiting factors will benefit greatly from these advances.
From Tactical Routing to Strategic Advantage
Next generation routing technology – that leverages the advancements in GPU hardware – doesn’t just improve tactical route planning, it reshapes how organizations think about network optimization altogether.
With near-instant optimization, fleets can:
- Revisit routing policies and assumptions more frequently
- Run daily and weekly scenarios that were once considered “too complex”
- Perform multi-equipment bulk and compartment-based routing
- Evaluate effectiveness of territories versus a dynamic solution
This then opens the door to more advanced supply chain optimization use cases, including:
- Directly integrating tactical routing into strategic network design
- Dynamic fleet versus common carrier decisions
- Equipment type optimization across large networks
- Improved distribution center location and flow scenario analysis
In effect, tactical routing becomes part of strategic analysis, rather than a limited input based on a fixed point-in-time.
The Future of Routing Optimization
For complex networks and fleets, next generation GPU-based routing technology represents a fundamental leap forward, not just an incremental improvement. It removes the long-standing tradeoff between optimization quality and speed-to-completion. With this approach, fleets can generate high-quality routes quickly enough to truly operate dynamically, including evaluating multiple scenarios as part of regular operations.
Today, only a small number of companies offer this level of capability, but they have reached a limit to what the traditional approach can produce. As cost pressures rise and operational complexity continues to grow, the shift toward this new era of routing platforms is likely inevitable.
For fleets willing to adapt their processes, policies, and planning workflows, advanced routing and scheduling optimization is not just a technology upgrade – it's a transformative lever that can create a sustained competitive advantage.
About the Author
Chris Doersen is a Principal of Client Engagement at JBF Consulting, bringing more than 20 years of experience designing, modeling, and implementing logistics solutions for complex transportation networks. He partners with global shippers to drive efficiency, optimize fleet and carrier operations, and enable technology adoption that delivers measurable impact.
Chris has deep expertise with platforms including Blue Yonder, Descartes, Llamasoft, and Appian, and has led large-scale network design and TMS implementations for leading manufacturers and distributors. Known for his analytical rigor and operational insight, Chris helps organizations turn transportation strategy into sustained results.
If GPU-based routing is prompting you to rethink what’s possible in your network, it’s worth taking a closer look at the assumptions built into your current design. At JBF Consulting, we help shippers pragmatically evaluate new technologies, reduce implementation risk, and orchestrate change in a way that fits operational reality. If you’re ready to explore what next-generation routing could mean for your fleet, contact us today.
FAQs
GPU-based vehicle routing optimization is a next-generation routing technology that uses Graphics Processing Units (GPUs) instead of traditional CPUs to solve complex routing and scheduling problems. GPUs can process thousands of routing scenarios simultaneously, allowing fleets to generate high-quality routes in seconds rather than minutes or hours. This dramatically improves optimization speed, solution quality, and operational flexibility.
Traditional CPU-based routing engines struggle to keep up with modern fleet complexity. Today’s routing problems must account for driver hours, equipment types, service windows, traffic conditions, customer constraints, and tight order cutoffs. CPUs process calculations sequentially, which limits speed and scenario testing. As a result, fleets often settle for “good enough” routes or rely on manual adjustments, leading to higher costs and reduced agility.
Independent analysis shows that GPU-powered routing platforms can run 10–25 times faster than traditional CPU-based routing engines. Optimization runs that previously took 30 minutes or more can now be completed in seconds. This allows planners to re-optimize when conditions change, test multiple scenarios, and make real-time routing decisions without operational delays.
GPU-based routing optimization delivers measurable performance improvements, including:
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3–7% reduction in total miles driven
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Lower fuel and labor costs
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Improved asset utilization
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Reduced emissions
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Faster response to late orders and disruptions
Even small percentage improvements, applied daily across a fleet, can generate significant annual cost savings and competitive advantage.
Faster optimization enables fleets to move beyond tactical route planning and into strategic network optimization. With near-instant processing, organizations can:
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Compare dynamic routing vs. fixed territories
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Evaluate driver quality-of-life tradeoffs
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Test multiple dispatch policies
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Optimize equipment types across networks
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Integrate routing into network design decisions
Instead of being constrained by long run times, fleets can continuously improve routing policies and make data-driven decisions that balance cost, service, and operational performance.
