Prove the program before the machine runs it.
We build a digital twin of the exact machine on your floor and run your posted NC program through it first, so the collision, the gouge and the overtravel are found in the model, not on the spindle.
Your machine is the most expensive way to test.
Every program gets proved somewhere. On the machine it costs spindle, part and time. In a model, a crash costs a line in a report.
A crash can mean a spindle rebuild and weeks waiting on parts
A gouge scraps a part you have already paid to machine
Dry runs and prove-out stop the machine earning
You send the program.
We send back what it would have hit.
Machine digital twins
A model of your actual machine: its kinematics, axis limits, tooling, workholding and control behaviour. Not a generic machine that resembles yours.
NC program validation
We run your posted G-code against that model, exactly as the control would read it, and report what it hits, gouges or overruns.
Process engineering
Where the cycle wastes time and where it runs too close. Air cutting, clearances, tool engagement, and the moves that carry the most risk on the floor.
Virtual commissioning
Proving a new setup, sequence or fixture before it exists on the floor, so a new job or a new machine starts with the questions already answered.
Technical enablement
Visual workflows and written findings that programmers and operators can use on the floor, not a report that sits unread in a folder.
Simulation integration
Connecting the machine, your CAD/CAM and your project data into a validation step that runs the same way on every job.
Where the first cut has to be right.
From your program to a proven one.
We service these machines. Now we model them.
In this trade
since 1996
LAROSA has supplied, installed and serviced industrial machinery from Sharjah since 1996. Simulation is an addition to that work, not a departure from it.
Built by people
who service them
Your machine is modelled by people who have had the covers off that class of machine. A twin is only worth what the person building it knows.
In Sharjah,
not a time zone away
When a program has to be proved on your machine, you are talking to someone who can be on your floor the same week.
What people ask before they send us a program.
What do you need from us to start?
The machine and its control, the posted NC program, the CAD/CAM data behind it, and the tooling and workholding you actually use. For a first study one machine and one program is enough. We also agree the acceptance criteria up front, so it is clear what the study has to answer before anyone starts building.
Do we have to change our CAM system?
No. We work from the code your post processor already produces, for the machine you already own. Nothing in your programming chain has to move for us to validate what comes out of it.
What do we actually receive?
Four things, one at each stage. A statement of work that fixes the scope. A model baseline once the machine is built. A findings register from the study itself. A release package at handover carrying the verified outputs, the limitations and the recommended next step.
Is the digital twin a generic machine model?
No. It is configured around your machine: kinematics, axis limits, tooling, workholding and control behaviour. A model that merely resembles your machine will not catch what your machine will actually do, which is the only thing worth knowing before the spindle turns.
What happens to our program data?
It is handled for the engagement it was sent for, and is not reused outside that scope without your authorisation. Model assumptions, revisions, study conditions and release outputs are recorded, so the work can be reviewed rather than taken on trust.
Is any of this left to the software to decide?
No. Every finding is reviewed by an engineer before anything reaches you. The software reports what it found; the engineer decides what it means and what you should do about it.