What your AI agents will cost you

Tell us how much AI work you expect next year. We will show you what it costs to build on and what it costs with us.

With Akka

You can save even more with a neocloud
vs

Integrating it yourself on AWS

How many tokens will you consume in Y1?

A token is about ¾ of a word
Most mid-size firms run 2,000–8,000B

What is your AI use case split? 100%

The types of AI use cases you expect determines which kinds of models we need and whether any SLMs can be trained from narrow, repetitive work. For example, reading documents looks similar each time, so a small trained model can do it for a fraction of the price. Akka will automatically train the right models for you.

You send in
tokens
Comes back
tokens
Conversations
A year
Computing needed
Machine-hours, untuned
Work we train away
Computing saved
Training costs you
$0

Techniques we apply

How busy your machines are

MidnightNoonMidnight
Working for youIdle, where we train
Machines held
Average in use
Idle machine-hours
Idle time the training uses

What we train, and what it takes off your bill

A specialist model handles only the part of a job that repeats. The task is built into the model, so each request carries far less instruction and comes back shorter: about 40% of the tokens going in, and 60% coming back. Any job that repeats at least 40% of the time is eligible for an SLM.

Kind of work You send Of that, repeats What we do You still pay for You stop paying for

Next twelve months estimate

Billed forLowBaseHighMax

Included in the Akka configurationAkka installs in your AWS VPC

See all of Akka’s 400 capabilities

How much work the same reserve carries

Year Tokens you could consume Growth on year one What you pay us Cost per million tokens

Why the same machines carry more work every year

A reserved fleet behaves unlike most capital equipment. Its productive capacity rises each year while the cost basis stays fixed, so unit cost deflates. Part of that gain is exogenous. Open-weight releases arrive from outside your organisation and raise output per unit of hardware at no cost to you, the way an economy-wide productivity shock does: Qwen3 Coder Next reaches 74.2% while activating three billion parameters, so one chip now carries work that recently took several. Part is process improvement on the same capital, where a small model drafts and the large one verifies in a single pass, lowering the marginal cost of every answer. The rest is learning by doing: each month of production reveals repeating patterns, each pattern becomes a trained specialist, and your own accumulated output lowers your own future cost. What follows is ordinary operating leverage. A fixed fee spread across a rising output ceiling means average cost per million tokens falls.