Predictika · Remote telecontrol units
An AI sales agent prepares an order for an S4W-RTU remote telecontrol unit from the public datasheet: the case, the I/O extension modules and communication modules, the inputs and outputs the site needs, and the data points, alarm sequences, recipients, calendars and exceptions asked for. Before it goes out, the agent sends it to Predictika, which checks it against a declarative model of that datasheet and returns a verdict and every reason.
This validator models orders for the S4W-RTU as set out in the public Lacroix Sofrel datasheet, not just the scenarios shown below.
Any order for this unit that touches these rules is in scope — not only the scenarios pictured here. Not covered: prices (Lacroix Sofrel publishes none for this unit, so this validator produces no price build-up or line-item quote), other Sofrel products, which module goes in which slot, power and installation. Assumptions: the datasheet limits are treated as hard limits, the capacity of each kind of input and output is the case allowance plus the fitted modules, and the bus extension module is treated as needing confirmation because no rule is published for it.
7 scenarios in 3 groups · each group runs from the agent’s first attempt to the outcome · click one to switch
Illustrative agent statement. The validator receives the structured request below.
Proposing agent: AI sales agent (scripted)
Before sending, the agent must call Recorded run
What this means
Our assessment of what a typical rules-based CPQ (product rules, price rules and validation rules, as in Salesforce CPQ) does with the same cases. It is a judgment about effort and reliability, not a claim that nothing can be built.
| What the validator caught | Typical rules-based CPQ | Predictika |
|---|---|---|
| Capacity that is the case plus the modules fitted | Only with workarounds Each kind of input and output has its own allowance from the case and from each module type, so the total has to be summed and compared for every kind. | The capacity of every kind is derived from the case and the fitted modules and compared with the site's need on every call. |
| Several independent limits on one order | Only with care Module counts, data points, alarm sequences, recipients, calendars and exceptions are separate checks, and a rep who fixes one often meets the next on re-save. | All of them are checked together on every call and each is reported. |
| An option listed without a rule | Only with workarounds A rules-based setup either ignores it or blocks it, because there is no stated condition to encode. | It is flagged for a person to confirm, kept apart from the hard errors. |
| Every problem returned in one answer, with approvals kept apart from errors | Only with workarounds Rules tend to fire as the order is saved or a step is completed, so errors and approvals arrive piecemeal. | All findings come back together: errors first, then items for a person to confirm. |
Every rule is checked on every call, in any order the choices arrive; one problem never hides another. Blocking findings stop the quote; approval findings need a person to sign off; everything else is computed.
| 1 | The site needs 1 4-20 mA analog inputs; the case and modules provide 0. |
| 2 | The order has 11 I/O extension modules; the S4W takes up to ten. |
| 3 | The order has 4 communication modules; the S4W takes up to 3. |
| 4 | The site needs 25 digital inputs; the case and modules provide 24. |
| 5 | The site needs 7 4-20 mA analog inputs; the case and modules provide 6. |
| 6 | The site needs 1 AIT inputs; the modules provide 0. |
| 7 | The site needs 4 AIV inputs; the modules provide 0. |
| 8 | The site needs 7 digital outputs; the case and modules provide 6. |
| 9 | The site needs 4 DO+ (60 VA) outputs; the 4DO+ modules provide 0. |
| 10 | The site needs 2 analog outputs; the modules provide 0. |
| 11 | The order manages 2,001 data points; the S4W manages up to 2,000. |
| 12 | The order has 21 alarm sequences; the S4W supports 20. |
| 13 | An alarm sequence has 15 recipients; the S4W supports 14 per sequence. |
| 14 | The order has 21 deferral calendars; the S4W supports 20. |
| 15 | The order has 11 calendar exceptions; the S4W supports 10. |
| 16 | The datasheet lists a bus extension module (EXT) without saying when it is needed or what it adds; a person should confirm it. |
| 17 | The order manages 2,500 data points; the S4W manages up to 2,000. |
| 18 | The order has 5 communication modules; the S4W takes up to 3. |
| 19 | The site needs 40 digital inputs; the case and modules provide 8. |
| 20 | The site needs 3 4-20 mA analog inputs; the case and modules provide 0. |
| 21 | The site needs 2 digital outputs; the case and modules provide 0. |
| 22 | The order manages 3,000 data points; the S4W manages up to 2,000. |
| 23 | An alarm sequence has 20 recipients; the S4W supports 14 per sequence. |
The recorded result of the validator for each scenario on this page: the request the AI agent sent, the verdict, and every finding, in the order they appear above.
The agent's request. Please quote an S4W-RTU Small case with no extension modules and 1 x RS485. The site needs 24 digital inputs, 6 4-20 mA analog inputs, 6 digital outputs, with 900 data points, 6 alarm sequences, 8 recipients per sequence, 3 deferral calendars and 2 calendar exceptions. It is ready to send.
Verdict: Blocked.
The agent's request. Please quote an S4W-RTU Small case with 1 x 16DI, 1 x 4AImA, 1 x 4DO and 1 x RS485. The site needs 24 digital inputs, 6 4-20 mA analog inputs, 6 digital outputs, with 900 data points, 6 alarm sequences, 8 recipients per sequence, 3 deferral calendars and 2 calendar exceptions. It is ready to send.
Verdict: Allowed.
The agent's request. Please quote an S4W-RTU Large case with 7 x 16DI, 2 x 8AImA, 1 x 8DO, 1 x 4DO, 1 x 4DO+ and 2 x RS485, 1 x HID, 1 x DL. The site needs 120 digital inputs, 20 4-20 mA analog inputs, 12 digital outputs, with 2,400 data points, 12 alarm sequences, 10 recipients per sequence, 6 deferral calendars and 4 calendar exceptions. It is ready to send.
Verdict: Blocked.
The agent's request. Please quote an S4W-RTU Large case with 7 x 16DI, 2 x 8AImA, 1 x 8DO and 2 x RS485, 1 x HID, 1 x DL. The site needs 120 digital inputs, 20 4-20 mA analog inputs, 12 digital outputs, with 2,400 data points, 12 alarm sequences, 10 recipients per sequence, 6 deferral calendars and 4 calendar exceptions. It is ready to send.
Verdict: Blocked.
The agent's request. Please quote an S4W-RTU Large case with 7 x 16DI, 2 x 8AImA, 1 x 8DO and 2 x RS485, 1 x DL. The site needs 120 digital inputs, 20 4-20 mA analog inputs, 12 digital outputs, with 2,000 data points, 12 alarm sequences, 10 recipients per sequence, 6 deferral calendars and 4 calendar exceptions. It is ready to send.
Verdict: Allowed.
The agent's request. Please quote an S4W-RTU Medium case with 1 x 8DI, 1 x 4AImA, 1 x 4DO and 1 x RS485. The site needs 20 digital inputs, 4 4-20 mA analog inputs, 8 digital outputs, with 1,500 data points, 10 alarm sequences, 16 recipients per sequence, 5 deferral calendars and 3 calendar exceptions. The order also includes the bus extension module (EXT). It is ready to send.
Verdict: Blocked.
The agent's request. Please quote an S4W-RTU Medium case with 1 x 8DI, 1 x 4AImA, 1 x 4DO and 1 x RS485. The site needs 20 digital inputs, 4 4-20 mA analog inputs, 8 digital outputs, with 1,500 data points, 10 alarm sequences, 14 recipients per sequence, 5 deferral calendars and 3 calendar exceptions. The order also includes the bus extension module (EXT). It is ready to send.
Verdict: Needs approval.
The text of the narrated walkthrough, step by step.