Data Science × Process Engineering

Know the state of your process. Predict what it does next.

StateSpace Analytics blends engineering with data science, applying statistics and physics-based modelling to industrial systems — turning process data into models you can monitor, simulate, and act on.

BATCH PROCESS · PLS MODEL INVERSION batch progress → batch trajectories optimal quality metric → quality distribution model inversion x₁x₂y t₁ t₂ latent space · null-space CI
Methods you can audit. Models you can run. MATLAB · Simulink · Python · R

§ 01 — Capabilities

Holistic modeling for process design & optimization.

Six disciplines, matched to the question you need answered — from monitoring a live process to simulating one that doesn’t exist yet.

Statistical Process Control01

Statistical Process Control

Multivariate process monitoring, control, and optimization for continuous and batch processes. Detect anomalies, leverage built-in diagnostics to drill down to root causes, reduce variability, and optimize product quality.

Bayesian Analysis02

Bayesian Analysis

Inference that reports what you actually know. Models return full posteriors and credible intervals, carrying uncertainty through to the decision instead of collapsing it into one number.

Physical Systems Modelling03
G(s)

Physical Systems Modelling

First-principles and grey-box models of the plant — thermal, fluid, mechanical. Capture the dynamics in simulation and test changes before they touch the real system.

Design of Experiments04

Designs of Experiments

The most information from the fewest runs. Isolate the effects driving your process and locate the settings that matter.

Discrete Event Simulation05
μ λ

Discrete Event Simulation

Throughput, queues, and resource contention, modelled event by event. Size capacity, expose bottlenecks, and stress-test operations before committing capital.

Probabilistic Risk Analysis06

Probabilistic Risk Analysis

Quantify what can go wrong and how likely it is. Reliability models and Monte Carlo propagation turn component failure rates and uncertainty into system-level risk — and rank the contributors worth mitigating first.

§ 02 — Selected work

The same toolkit, across very different industries.

A sample of engagements — from rolling mills to shipping ports to building environmental systems.

01

Metals · Rolling

Aluminum rolling profile optimization

Modelling strip thickness and flatness across a rolling line, then tuning setpoints to hold profile within tolerance — mill physics, designed experiments, and multivariate modeling working together.

SPCDoEOptimization
02

Energy · Pipelines

Oil pipeline risk modelling & energy optimization

Quantifying leak and failure risk across a pipeline network while optimizing pump scheduling and energy use — fault- and event-tree risk models alongside hydraulic and energy modelling.

PRAModellingOptimization
03

Medical devices · Regulated mfg

Medical device manufacturing

Process characterization and statistical monitoring for a regulated production line — capability studies, designed experiments, and control charts built to hold up under audit.

SPCDoE
04

Maritime · Logistics

Maritime shipping logistics

Discrete-event models of port and fleet operations — sizing berth and vessel capacity, exposing bottlenecks, and stress-testing schedules before assets are committed.

DESOptimization
05

Buildings · HVAC

Building environmental systems modelling

Physics-based models of building ventilation and thermal behaviour — capturing airflow and energy dynamics to test control strategies and equipment changes in simulation.

ModellingDES

§ 03 — Approach

How an engagement runs.

A working sequence, not a fixed package — each step earns the next.

01

Frame

Pin down the process, the question, and the measurement that defines a good outcome.

02

Instrument

Get the right data and physical understanding in place to answer it.

03

Model

Build the statistical or physical model — then validate it against reality.

04

Deploy

Put the result into operation, documented so your team can run it.

§ 04 — About

Rigorous by default — and built to be handed over.

StateSpace Analytics is a consulting practice for organizations that treat their processes as systems worth measuring. The work sits where statistics meets engineering: enough physical modelling to respect how a plant actually behaves, and enough statistical discipline to know when a result is real.

Every model is built to be audited, re-run, and maintained by your own team — not left behind as a black box.

MATLABSimulinkPythonRMultivariate SPC

§ 05 — Contact

Have a process worth modelling?

Tell us about the system and the decision behind it. We’ll tell you whether the data supports the answer you’re after.