Intralogistics and Flow Engineering

You receive equipment, not a system architecture

robots-icon-11

You have another project with conveyors, sorting systems, robots, and WCS/WMS integrated “according to specification,” but without a clear system-level model defining zone roles, flow rules, priorities, and operating limits. The system functions, but there is no architecture governing the behavior of the flow as a whole. Every local change introduces another unexpected consequence.

You do not control the degrees of freedom. You tolerate them

robots-icon-6

Without unified system logic, minor deviations require constant manual adjustment. This is where resets, bypasses, and ad-hoc prioritization emerge. During peak periods, you need a task force of operators to compensate for complexity that was never absorbed into the architecture during the design phase.

System behavior is undefined under variation and failure conditions

robots-icon-3

A project is considered “functional” when all functions work under ideal conditions. But there is still no defined answer for guaranteed throughput during peak periods, what happens when a node fails, how the flow should degrade under controlled failure conditions, or how many interventions per shift are acceptable. Without these behaviors being designed in advance, the system reacts locally rather than coherently.

There is no real validation and stabilization phase

robots-icon-13

After SAT, the system moves directly into operation, and you discover its stability “on the fly”: bottlenecks in unexpected locations, bypasses, manual adjustments, and “unofficial” rules emerging between zones. There is no validation phase under peak load, real product mix, and typical failure conditions. Nor are there instruments for measuring operational entropy — bottlenecks, rerouting, interventions, and other sources of instability. The result: you have an automated system, but not a stable system.

Clearly defined flow architecture

We provide clear documentation and defined responsibilities for the topology connecting receiving, storage, picking, packing, and shipping zones, including functional roles, segment sizing, and constraints. Your flow is connected and governed.

1
Explicit control & orchestration rules

We define clear rules for routing between zones, prioritizing orders and parcels, forming and limiting queues, and controlled bypassing. Your flow does not simply “figure things out.” It knows how to respond when a zone stops. You get control, not a domino effect.

2
Capacity and behavior model under load

Your throughput is not theoretical. We define expected performance at 80%, 100%, and 120% volume, estimated latency across critical zones, identified bottlenecks, variation absorption capacity, and an acceptable number of interventions per shift.

3
Validation under real variation

We perform testing under conditions that closely reflect actual operations: real order mix, peak-hour windows, and a defined set of typical incidents. Acceptance is based on defined SLOs — throughput, latency, and interventions per shift — not simply on “functionality confirmed.”

4
Standardization and replication

We provide a blueprint with documented architecture, standardized flow rules, transferable parameters, and replication packages for other distribution centers. Scaling a project should not mean reinventing it.

5
Control remains with you

We provide a system that allows your team to own and manage the behavioral model: adjusting priorities, modifying parameters, and extending zones. The architecture, rules, and parameters are documented and transferred to your team.

6

Conveyor systems

Continuous material handling systems for goods flow, including belt conveyors, powered and gravity roller conveyors, curves, merges/diverts, and inter-level transport.
We segment the flow into zones with distinct operating behavior, defining controlled release points, decoupling points, micro-accumulation zones, and clear load limits for each segment. The objective is not simply to move material, but to control how flow propagates through the system.

Vertical transportation systems

Lifts and vertical transfer solutions for movement between levels, integrated with conveyor and sorting systems.
Our architecture balances vertical flow, minimizes dependency on critical nodes, and introduces functional redundancy proportionate to the associated risk. Vertical transfers are engineered to maintain predictable flow and avoid single points of failure.

Sorting and diverting systems

Sorting and diverting systems — including pop-up sorters, belt sorters, shoe/slat sorters, and custom diverters — for directing parcels and pallets to the appropriate destinations.
Sorters are engineered as flow-balancing mechanisms, not simply routing devices. We design dynamic output allocation, dedicated buffer zones for volatile destinations, and controlled limits on recirculation to prevent local congestion from propagating through the system.

Warehouse automation modules

We design automation modules for warehouses, including AS/RS, shuttle systems, buffering zones, automated picking and packing stations, and WMS/WCS integration. We engineer the relationship between equipment density, system interdependence, and the degree of coupling between processes to maintain predictable flow behavior.

Put-to-Light/Pick-to-Light Systems

We design light-directed systems that reduce human error and accelerate picking and order-sorting operations. We engineer clear replenishment rules for picking zones, limit operator workload, and synchronize automated throughput with human operating pace.

Custom material transport and handling solutions

Custom transport and handling solutions for chutes, specialized transfers, and the handling of atypical or sensitive parts within continuous-flow processes — without relying on local workarounds. Design starts from the actual operating conditions: load variability, building constraints, and product-mix characteristics.