Sistemas4 min read

A growth system built on simulation of user behavior

Imagine for a moment being able to test 10,000 different strategies before implementing the best one in your real business. Without spending real budget on every test. Without…

Imagine for a moment being able to test 10,000 different strategies before implementing the best one in your real business. Without spending real budget on every test. Without exposing real customers to experiments that might fail. Without wasting your team’s time on initiatives that probably will not work.

That is exactly what user behavior simulation makes possible. And the technology already exists to make it accessible to mid-sized companies, not only to tech giants.

Digital twins of your users

Simulation systems build digital models that replicate the behavior of your real users with high precision. These models are not your real users, but digital versions of them based on their historical behavioral patterns.

These “digital twins” respond to stimuli the way the real ones would, letting you test campaigns, products, prices or messages on them before implementing anything in the real world with actual customers.

The full process works in five coordinated stages. Each stage requires specific capabilities, but none of them is accidental or improvised. It is systematic engineering applied to predicting human behavior.

Data, models and validation

First stage: capture the historical behavior of your real users in sufficient detail. That includes which products they bought, at what moments, in what sequences, which prices they accepted, which prices they rejected, which messages moved them, which messages pushed them away.

The quality of the historical data sets the ceiling for the entire system. Without enough data, there is no basis on which to build precise digital twins.

Second stage: build mathematical models that replicate the decision patterns observed in the data. These models are not simple if-then rules. They are complex statistical architectures that capture behavioral probabilities under different conditions. Building them correctly requires serious data science, not improvisation.

Third stage: validate that the models actually predict real behavior with acceptable precision. This is done by testing the models against subsets of data set aside specifically for validation. If the model predicts real behavior with 85% accuracy or better, it is useful for simulation. If it predicts less, it needs more training or more data.

Simulate first, then execute

Fourth stage: simulate how the digital twins respond to new stimuli that have not been tested in the real world. This is where the system generates real value.

You can test 50 price variants, 20 different messages, 10 offer structures, all in simulation, and see what the models predict about each combination. That lets you explore a vastly wider space of possibilities than real testing allows.

Fifth stage: identify which stimuli produce the best result predicted by the models, and run only those in the real world with actual customers. This dramatically reduces the cost of learning, because you do not spend money or time on real tests of variants the simulation has already predicted would not work well.

The economic value of this system is enormous when applied correctly. A traditional company can test 4 or 5 variants of something in a quarter, because each test costs time and money.

A company with simulation can explore 1,000 variants in simulation over a week, identify the 3 best ones predicted by the models, and only test those 3 in the real world. The speed of learning is radically higher.

Two illustrative examples

Let’s say, with figures purely for illustration, that an e-commerce company in Latin America applies behavior simulation to pricing.

Before touching the real prices in its store, it simulates the expected impact across dozens of different variants and only applies the changes the model anticipates as positive.

In a scenario like this, after twelve months of operation it would have found its optimal prices without burning sales on failed tests, and total margin could have grown by around 18% in the ninety days following full implementation, with room to keep improving.

Imagine another company, this one in financial services, using simulation to test message variations before sending them to the full list. It used to send a single message to fifty thousand people and wait to see what happened.

Now it simulates the expected response to thirty variants, identifies the best three and sends only those. In a case like this, the average conversion of its campaigns could grow by something like 220% while the cost of each test falls noticeably.

Instrumentation before simulation

The main mistake companies make when attempting simulation is building it on insufficient or poor-quality data. Garbage in, garbage out applies brutally here. If your historical data is incomplete, inconsistent, or does not capture enough relevant variables, the models will be imprecise and the simulation will produce misleading predictions that can be worse than intuitive human decisions.

That is why the first serious investment before implementing simulation is making sure your systems capture the right data for long enough. This can take 12 to 24 months of prior instrumentation before you have an adequate base for useful simulation. The initial patience pays off abundantly later.

Keep reading

Share this article

And in your case?

Let's make it real

This is how it works. If you want us to build it with you, tell us what you want to achieve and we start by understanding your context.

Related articles

These articles might interest you too