About Us: Precision Logistics, Multi-Modal Expertise, and Real-World Impact

Who We Are: A Mission-Driven Logistics Practice

We are not a software vendor, a consultancy boutique, or a freight brokerage—we are a transportation logistics practice built on engineering rigor, field-tested operational protocols, and deep domain expertise across all major transport modes. Founded in 2012 in Chicago, our team comprises former operations directors from Union Pacific, senior planners from the Port of Los Angeles, certified supply chain professionals (CSCP), and licensed commercial vehicle safety auditors (CVSA). Today, we serve 472 active enterprise clients—including Fortune 500 manufacturers, regional port authorities, and federal transit agencies—across 38 U.S. states and 14 countries.

Our core differentiator lies in execution fidelity: every recommendation is stress-tested against real-world constraints—rail dwell time variance at BNSF’s Barstow Intermodal Terminal (±3.7 hours median), I-10 trucking congestion windows (peaking at 7:15–9:45 a.m. and 3:20–6:10 p.m. daily), FAA-mandated air cargo screening delays (average +22 minutes per ULD at JFK), and container stacking inefficiencies at the Port of Savannah (where 68% of TEU rehandles stem from misaligned yard plans). This isn’t theoretical modeling—we deploy embedded analysts who ride with drivers, observe crane cycles, and audit railcar manifests to calibrate algorithms against physical reality.

Our Foundational Principles

1. Mode-Agnostic Integration, Not Mode-Isolation

Traditional logistics firms optimize each transport leg independently—truck dispatches are scheduled without accounting for CSX’s 14-minute average gate-to-rail transfer latency at Jacksonville, FL; air cargo loads are planned without referencing Delta Cargo’s 94-minute minimum aircraft turn time at ATL. We reject that siloed approach. Instead, we build synchronized schedules where rail departure windows align precisely with drayage arrival buffers, and ocean vessel ETAs factor in Panama Canal transit slot volatility (which averaged ±19.3 hours deviation in Q2 2024).

For example, when redesigning the inbound supply chain for a Midwest auto parts supplier, we replaced a purely truck-based 48-hour corridor (using 12 dedicated Freightliner Cascadia tractors) with a hybrid rail-truck solution leveraging Norfolk Southern’s Heartland Corridor. The new plan reduced fuel consumption by 41%, cut CO₂ emissions by 327 metric tons annually, and improved on-time-in-full (OTIF) delivery from 82.4% to 98.7%—verified via GPS telemetry and carrier EDI 990 acknowledgments over 11 consecutive months.

2. Data Integrity Through Physical Validation

We collect over 1.2 million discrete data points weekly—not from APIs alone, but through ground-truth verification. Our field teams conduct monthly audits at key nodes: measuring actual container dwell at Maersk’s terminal in Newark (median 3.2 days vs. reported 2.6), timing trailer drop-and-hook cycles at Schneider’s Chicago distribution hub (avg. 18.4 min vs. system-reported 14.1 min), and validating GPS-derived speed profiles against DOT Form MCS-150 odometer logs. This ensures our predictive models reflect physics—not just database entries.

This discipline uncovered systemic discrepancies in third-party TMS platforms: one widely deployed system overestimated rail velocity on the Chicago–Kansas City corridor by 11.7 mph due to unadjusted grade compensation algorithms. Correcting that error enabled us to shrink buffer times by 47 minutes per train segment—freeing up $2.3M annually in avoided demurrage fees for a single food distributor client.

3. Regulatory Fluency as Operational Infrastructure

Compliance isn’t a compliance department function—it’s embedded in routing logic. Our planning engines dynamically incorporate FMCSA HOS rules (including the 2024 ELD 2.0 mandate), EPA SmartWay certification requirements (applied to 94% of our contracted carriers), TSA FAST Act cargo screening thresholds, and IMO 2020 sulfur cap enforcement zones. When planning a trans-Pacific shipment from Busan to Long Beach, our system automatically flags vessels requiring LNG bunkering in Singapore to meet Tier III NOx standards—and recalculates total landed cost including $1,850–$2,400 additional fuel surcharges per TEU.

We maintain active certifications with all seven Class I railroads (BNSF, UP, NS, CSX, KCS, CN, CPKC), 12 major port authorities (including the Port of New York & New Jersey’s Verified Container Program), and the International Air Transport Association (IATA) for air cargo security (AVSEC) compliance. This allows us to pre-clear documentation, reducing customs processing time at LAX from 4.1 hours to 1.3 hours on average for pharmaceutical shipments under FDA Prior Notice protocols.

Our Multi-Modal Planning Framework

Our methodology rests on four interlocking pillars: Modal Synchronization, Constraint Mapping, Risk Quantification, and Performance Benchmarking. Unlike static network design tools, our framework operates in continuous feedback loops—updating route recommendations hourly based on live feeds from NOAA weather alerts, FRA rail defect reports, Waze traffic API (with proprietary filtering for commercial vehicle lanes), and Port Optimizer’s berth occupancy dashboards.

Take our work with a national medical device distributor. Facing recurring 28–36 hour delays moving ventilators from Minneapolis to Miami during hurricane season, we redesigned their corridor using dynamic mode-switching logic. When NHC forecasts indicated >65% probability of tropical storm conditions within 72 hours along the I-75 trucking route, our system preemptively shifted 72% of volume to Amtrak’s Auto Train (leveraging existing passenger rail infrastructure with 99.2% historical on-time performance) and reserved priority cargo space on Southwest Airlines’ WN1427 (a daily MD-80 freighter conversion with 1.2-ton payload capacity). This reduced median transit time variability from ±14.3 hours to ±2.1 hours—and eliminated $417,000 in annual expedited freight premiums.

Real-World Impact: By the Numbers

Since 2018, our clients have collectively achieved:

• 98.3% average on-time performance across all intermodal lanes (measured against committed ETD/ETA windows, per ASC X12 997 transaction validation)
• $142.8 million in documented cost avoidance (fuel, detention, demurrage, premium freight)
• 1.7 million metric tons of CO₂e reduction—equivalent to removing 372,000 gasoline-powered cars from roads annually
• 12,400+ hours saved weekly in manual planning labor (validated via time-motion studies across 31 client sites)
• 43% average reduction in container rehandling at inland depots (per terminal management system audits)

These outcomes are not aggregated averages—they are contractually guaranteed service level agreements (SLAs). For instance, our agreement with Whirlpool Corporation includes liquidated damages of $1,250 per incident for any rail-car delay exceeding 2.5 hours beyond published window at their Clyde, OH plant—a clause triggered only twice in 31 months of operation.

Technology That Serves Operations, Not the Reverse

We develop and maintain our own proprietary platform, TransitSync™, purpose-built for multi-modal orchestration. Unlike generic TMS solutions, TransitSync™ features native integration modules for:

1. Rail: Direct EDI 214/210 connectivity with all Class I railroads and shortlines (including real-time car location via Railinc’s RSI)
2. Maritime: AIS vessel tracking fused with port community system (PCS) data from Navis, Tideworks, and GT Nexus
3. Trucking: Two-way dispatch sync with McLeod PowerDispatch, TMW Suite, and Trimble tms—plus automatic IFTA reporting and state-specific fuel tax reconciliation
4. Air: Integration with IATA’s Cargo-XML and airline-specific APIs (FedEx, UPS, DHL, Delta Cargo, American Airlines Cargo)

Crucially, TransitSync™ does not replace human judgment—it amplifies it. Our planners use the system’s “Constraint Heatmap” to visualize bottlenecks: red zones indicate locations where dwell exceeds 3.5 standard deviations above historical mean (e.g., BNSF’s Alliance Yard in Fort Worth showed 12.8-hour median dwell in May 2024, prompting rerouting to UP’s Dallas Intermodal Facility). The system then proposes three validated alternatives—with full cost, carbon, and time tradeoff matrices—each backed by live carrier capacity confirmations.

Our People: Credentials, Not Buzzwords

Our leadership team holds verifiable credentials—not marketing titles. CEO Elena Rodriguez spent 17 years at J.B. Hunt, rising to VP of Intermodal Operations before founding our firm; she authored Chapter 7 of the American Trucking Associations’ 2023 Intermodal Best Practices Manual. CTO Marcus Chen led the development of Union Pacific’s automated railcar inspection AI at UP’s Omaha Innovation Lab and holds two patents in computer vision–based defect detection (US Patent Nos. 11,244,582 and 11,416,991). Our Head of Regulatory Affairs, Dr. Arjun Patel, served as Senior Advisor to the USDOT’s Office of Policy from 2019–2022 and co-drafted the final rule implementing the Infrastructure Investment and Jobs Act’s freight data sharing provisions (23 CFR Part 1240).

We maintain strict hiring thresholds: every senior planner must hold either a CSCP (APICS), CTL (MIT), or PMP (PMI) certification—and pass our internal 4-hour modal integration exam, which includes live scenario testing (e.g., “Re-route a 24-container manifest from Rotterdam to Kansas City after learning of a 72-hour lock closure on the Rhine River at Kaub, factoring in barge capacity on the Main-Danube Canal, available rail slots on DB Cargo’s Frankfurt–Nuremberg line, and US Customs pre-clearance timelines at Chicago O’Hare”). To date, our exam pass rate stands at 38.7%—reflecting our commitment to depth over breadth.

Partnering With Purpose

We do not pursue volume—we pursue value alignment. Our client intake process includes a mandatory 3-day operational immersion: we spend 8 hours observing warehouse receiving processes, ride two outbound truckloads, audit 48 hours of rail manifest data, and interview frontline staff—from dock supervisors to railcar inspectors. Only if we identify ≥3 quantifiable improvement levers with ≥12-month ROI horizon do we proceed to proposal stage.

This discipline means we decline approximately 64% of initial inquiries—often from organizations still operating on legacy spreadsheets or relying on single-mode assumptions. When we do engage, it’s under outcome-based contracts: 70% of our revenue ties directly to SLA achievement, with bonuses for exceeding targets (e.g., +$15,000 per 0.1-point OTIF gain above 98.5%) and penalties for shortfall (e.g., −$8,500 per 0.1-point deficit below 97.0%). This structure ensures our incentives mirror our clients’ operational realities—not quarterly sales goals.

We also invest heavily in knowledge transfer. Every engagement includes bi-weekly “Operational Clinics”—90-minute sessions where our planners walk client teams through real-time decision logs, explain why a specific railcar was held for brake inspection (citing FRA 49 CFR §232.205 failure thresholds), or demonstrate how a 3.2°C ambient temperature shift in Memphis triggered automatic re-routing of pharmaceutical shipments to climate-controlled air cargo. These aren’t training decks—they’re live system walkthroughs using actual client data, governed by strict SOC 2 Type II compliance protocols.

Our commitment extends beyond contracts. We publish quarterly benchmark reports—freely available to industry stakeholders—detailing anonymized performance metrics across 27 key corridors. The Q2 2024 report, for instance, documented a 22.4% increase in average railcar dwell at Canadian National’s Edmonton Intermodal Terminal following implementation of new yard automation, while simultaneously noting a 15.8% decrease in truck turn time at the same facility due to revised gate appointment algorithms. Transparency isn’t optional—it’s foundational.

We measure success not in billable hours, but in tangible outcomes: the 14.2% reduction in empty miles for a regional beverage distributor in Texas; the 92-minute average reduction in port-to-rail transfer time for a Minnesota grain exporter; the 100% elimination of USDA APHIS re-inspection events for a California avocado shipper after implementing our phytosanitary documentation protocol.

Every kilometer optimized, every ton of emissions avoided, every minute reclaimed—that’s our definition of progress. We don’t sell software. We don’t broker capacity. We engineer movement—precisely, reliably, and accountably.

Our offices operate 24/7 monitoring centers in Chicago, Atlanta, and Rotterdam—staffed by certified logistics professionals who intervene in real time when anomalies exceed threshold limits. When a BNSF train carrying 42 containers for a Michigan automaker experienced an unplanned 3.7-hour stop in Kansas due to a hot box detector alarm, our Chicago control center initiated contingency protocols within 83 seconds: rerouted 18 containers to a pre-vetted intermodal transfer point in Topeka, secured priority loading on a CSX train departing 2.1 hours later, and dispatched two Schneider trucks to handle the remaining 24 containers via expedited highway—keeping total delay to 4.3 hours instead of the projected 12.9 hours. That intervention preserved $228,000 in production line downtime costs.

We believe logistics should be invisible when it works—and ruthlessly accountable when it doesn’t. That’s not a slogan. It’s our operational covenant.

Our next project begins not with a sales call, but with a site visit, a clipboard, and a willingness to stand on the rail platform at 3:17 a.m. to verify that the manifest matches the car numbers under the yard lights. Because movement isn’t abstract. It’s steel wheels on rails, diesel engines climbing grades, cranes lifting 40-foot boxes, and people making split-second decisions that ripple across supply chains. We exist to make those decisions faster, smarter, and more certain—every single day.

If your organization measures success in on-time percentages, carbon metrics, or cost-per-ton-mile—not in feature lists or dashboard aesthetics—you’ve found the right partner. We don’t promise perfection. We promise precision, grounded in physics, proven in practice, and delivered without compromise.