Industry

Build logistics software around the way the operation actually works

We build, integrate, and modernize logistics software across TMS, WMS, ERP, carrier APIs, EDI, and operational systems — so changes to orders, inventory, capacity, routes, appointments, and shipment execution can propagate through the systems that depend on them.

Who this software is built for

Logistics businesses operate differently, but they share one software problem: orders, inventory, shipments, equipment, documents, and financial records move through different systems and organizations that must still describe the same operation.

Third-party and fourth-party logistics providers, freight forwarders, customs brokers, and contract logistics companies coordinating transportation, warehousing, documentation, customs, and customer workflows across multiple partners.

Trucking companies, ocean and air carriers, rail operators, multimodal carriers, and specialized transportation providers managing capacity, loads, routes, dispatch, equipment, drivers, shipment events, and service commitments.

Parcel networks, courier companies, local delivery providers, and last-mile operators managing high-volume routing, driver coordination, delivery status, proof of delivery, returns, and delivery exceptions.

Warehouse operators, fulfillment providers, distribution centers, and multi-site networks coordinating receiving, inventory, picking, staging, dock appointments, loading, inbound and outbound transportation, and WMS workflows.

Manufacturers, retailers, distributors, e-commerce companies, and other enterprises managing logistics internally across orders, inventory, warehouses, transportation providers, and ERP, WMS, and TMS environments.

TMS and WMS products, freight platforms, logistics marketplaces, carrier-connectivity tools, visibility products, and other logistics SaaS companies building software across customer systems, carrier APIs, EDI networks, and external data sources.

Core system pressures

Plans change while freight is moving

A changed quantity, carrier, route, or appointment can invalidate decisions already being executed elsewhere.

Available capacity may not be usable capacity

Vehicles, docks, inventory, or delivery windows may still be unusable because of timing, driver, equipment, or regulatory constraints.

Shipment state is split across systems and partners

ERP, WMS, TMS, carriers, and customer systems may hold different views of the same movement.

Shipment exceptions change the work downstream

A missed pickup, short shipment, or late delivery can affect appointments, capacity, freight charges, and billing.

Compliance data tied to the shipment

driver hours, customs filings, transport documents, and regulatory status connected to the movement they govern

Clear sources for shipment data

where shipment, order, status, location, and document data came from — and when it changed

Clear authority to change a movement

who can tender, accept, release, reroute, override, confirm, or close a movement

Traceable movement and handoff history

what was picked up, transferred, delayed, delivered, changed, or disputed

0 %

of logistics leaders struggle to realize value from existing technology investments

Gartner, Future of Logistics

0 %

of supply-chain leaders say integrating AI with legacy systems and processes is a major challenge

Gartner

0 %

ONLY

of logistics service providers report measurable value from AI

BCG & Alpega

Integrations and ecosystem

Logistics software rarely runs in one system. Orders may start in ERP or OMS, warehouse execution in WMS, transport in TMS, while carriers and financial systems contribute their own data.

The integration path typically follows the movement from order and inventory commitment through physical execution and settlement:

ERP & OMS — orders, customers, inventory commitments
TMS, WMS & yard systems — planning, loading, inventory, and physical execution
Carriers, APIs & EDI — tenders, bookings, rates, shipment events, tracking
IoT, telematics & operational devices — location, equipment, temperature and cargo condition, driver and facility signals
Customs & trade systems — declarations, clearance, transport documents
Billing & freight settlement — freight charges, accessorials, detention, POD, invoice validation, and settlement

The goal is not one platform. ERP, WMS, TMS, carriers, customs, and settlement systems can remain separate as long as the right operational state reaches the next system that depends on it.

Bring us the workflow that is hard to change

The hard part isn’t the change. It’s everything that depends on it.

Product lifecycle complexity

Carriers, facilities, and lanes keep changing

New carriers, facilities, lanes, and customers change what the product has to coordinate.

Customers and networks add operating variation

Tendering, appointments, documents, service levels, and exceptions can vary by customer, facility, carrier, or lane.

Automation moves decisions into the workflow

As software moves from tracking to action, ownership, controls, and exception paths have to change with it.

Transport and customs rules keep changing

New requirements introduce data, documents, interfaces, and responsibilities the product must support.

Where these systems tend to fail

Problems appear when what is happening physically, what the systems show, and what teams do next stop matching. That is when logistics work starts moving into manual reconciliation, calls, emails, and side processes.

What happened physically does not match what the systems show

A shipment may arrive, wait, load, move, or change hands while TMS, WMS, carrier, or customer systems still show another state.

The plan changes, but not everyone gets the update

Carrier, route, appointment, quantity, or delivery changes may reach one system or partner while others continue executing the earlier plan.

Exceptions turn into manual coordination

Delays, missed appointments, failed deliveries, data gaps, or billing issues create calls, emails, queues, and side processes when ownership of the next action is unclear.

Physical completion does not always close the workflow

Delivery or unloading may be complete while POD, damage claims, redelivery, returns, equipment recovery, accessorials, or settlement still require resolution.

Role of a technical partner

A technical partner needs to understand how an order becomes warehouse work, a shipment, a document trail, and a settled financial record — and which system owns each stage.

Model the shipment lifecycle first

Map orders, inventory, shipments, loads, stops, appointments, documents, custody, and financial completion before deciding where the software should intervene.

Define system ownership by stage

Clarify what belongs to ERP, WMS, TMS, carrier, telematics, or external systems—and how conflicting or delayed updates should be reconciled.

Design handoffs for failed updates

Plan for missing events, duplicates, retries, changed bookings, stale status, partial failures, and partner API changes instead of assuming every handoff succeeds.

Change platforms while operations stay live

Plan migrations, coexistence, cutovers, and recovery around active orders, shipments, warehouse work, carrier connections, and settlement processes.

Operating conditions

When the system holds

The plan reflects capacity that can actually be used, not just capacity that exists on paper.
Route, carrier, appointment, quantity, or service changes can be reflected while the shipment is already moving.
Customer, carrier, facility, and lane differences can be handled without creating one-off operating processes.
A missed pickup, late arrival, rejected load, or failed delivery changes the next action — not just the shipment status shown on screen.

When problems appear

The plan still looks executable after driver, dock, labor, inventory, or service constraints have made it impossible.
The physical movement changes, but parts of the network keep executing the previous plan.
Every new customer, carrier, facility, or lane adds another workaround or manual rule.
The TMS shows the delay, but rerouting, rebooking, or warehouse changes still happen through calls, email, or spreadsheets.

FAQ

What is logistics software?

Logistics software supports the planning, execution, tracking, and financial completion of goods moving through a network. It can include transportation management systems (TMS), warehouse management systems (WMS), order and fulfillment workflows, carrier connectivity, fleet and dispatch tools, freight-forwarding platforms, last-mile systems, and integrations with ERP, customs, billing, and external logistics data.

What are the main types of logistics software?

Common categories include TMS for transportation planning and execution, WMS for warehouse operations, OMS for order workflows, fleet and dispatch systems, freight-forwarding platforms, last-mile delivery software, carrier-connectivity tools, and logistics visibility platforms. In practice, most logistics environments use several of these together rather than relying on one system for the entire operation.

What is the difference between a TMS and a WMS?

A TMS manages transportation activities such as planning, carrier selection, tendering, routing, shipment execution, tracking, and freight settlement. A WMS manages warehouse activities such as receiving, inventory, picking, packing, staging, and loading. The two often need to exchange orders, quantities, appointments, loading status, and shipment information so warehouse and transportation execution stay aligned.

How do TMS, WMS, and ERP systems work together?

ERP typically holds commercial and financial records such as orders, customers, products, and invoices. WMS manages the physical handling of inventory inside warehouses, while TMS manages transportation planning and execution outside them. Integration between ERP, WMS, and TMS allows order changes, inventory status, transport plans, shipment events, and financial records to move through the same operational flow without being manually reconstructed between systems.

What is the difference between EDI and API integrations in logistics?

EDI is widely used for standardized business transactions between logistics partners, including load tenders, shipment-status updates, invoices, and acknowledgments. APIs are typically used for more direct, application-to-application exchange such as rates, bookings, labels, tracking events, and carrier data. Many logistics environments use both: EDI for established partner workflows and APIs for newer or more dynamic integrations.

When should a company build custom logistics software instead of buying an off‑the‑shelf system?

Custom development makes sense when a standard TMS, WMS, or logistics platform cannot support the required carrier, warehouse, customer, or settlement workflows without repeated manual workarounds, or when the operation depends on coordinating systems that no single product owns. In other cases, extending or integrating an existing platform may be more practical than replacing it.

How much does custom logistics software development cost?

Cost depends on the number of operational systems and partners involved, the shipment and inventory data that must be migrated, carrier or EDI connections, warehouse and transport workflows, and whether live operations must continue during migration or cutover. A useful estimate starts by identifying which systems own the order, inventory, shipment, carrier update, document, and financial record.

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Galina Berezina

COO

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Igor Bilan

CEO