MyIngenieur
MyIngenieur/ live demo

The engineer's speedrun

One real problem — a sensor mounting bracket that has to hold a 20 kg sensor on a 250 mm arm — taken from a blank brief to a signed-off, documented design. Every number below is computed live by the same engines in the app; nothing here is a mock-up.

Critical-path planningParametric 3D FEAAutomated stress & deflectionSenior-engineer reviewAuto-generated report
100:00 · Plan

Turn a blank project into a schedule

problem · A team has a bracket to build and no plan.tool · Action Plan Generator
Timeline
17 days
Tasks
12
Phases
6
Critical path
10 tasks
Schedule — critical path in redworking days
037101417
Requirements
Capture requirements & constraints
1d
Define load cases & duty cycle
1d
Concept
Concept sketches & down-selection
2d
Material & manufacturing selection
1d
Detailed Design
Parametric CAD model
2d
FEA — stress & deflection
2d
Tolerance stack-up & GD&T
1d
DFM review & drawings
1d
Prototype
Fabricate prototype
3d
Test & Validate
Bench test vs load cases
2d
Design iteration from test data
2d
Document & Deliver
Engineering report & handoff
1d
Risk register
FEA reveals inadequate safety factormed likelyhigh impact

Mitigation: Reserve schedule float for a section resize; run FEA early on the driving load case.

Long-lead material or machiningmed likelyhigh impact

Mitigation: Order stock and book machine time at DFM sign-off, before the prototype phase.

Tolerance stack exceeds fitlow likelymed impact

Mitigation: Run the stack-up before releasing drawings; apply GD&T only where function needs it.

Milestones
D2Requirements complete
D4Concept complete
D9Detailed Design complete
D12Prototype complete
D16Test & Validate complete
D17Document & Deliver complete
Open the Action Plan Generator →
200:48 · Design

Size the part in 3D — stress solved as you shape it

problem · Will an 8 mm-thick steel arm hold the sensor?tool · 3D CAD / FEA
Computed instantly
Max bending stress153.1 MPa
Tip deflection3.99 mm
Yield strength250.0 MPa
Self-weight5 N
Safety factor1.63
Open the 3D CAD / FEA simulator →
301:40 · Review

Get it reviewed like a senior engineer would

problem · It passes on paper — but is it actually good?tool · Advisor Mode
FAILThis design does not pass review — address the issues below before release.
MEDIUMSafety factor is below the usual design target of 2

A safety factor of 1.63 is defensible for a static, well-characterised load, but thin for real service or any fatigue.

For margin, take the height to 11.37 mm. If the load is truly static and known, 1.63 may be accepted with justification.

HIGHTip deflection exceeds the serviceability limit

Tip deflection is 3.99 mm — that is span/63, past the common span/180 limit. The part may pass on strength yet feel flimsy or misalign mating features.

Deflection scales with h³, so it governs here. A section height of 11.37 mm brings the tip inside the span/180 limit (and comfortably clears strength). Alternatively, shorten the span or add a support.

Advisor solved the fix

Take the section height to 11.37 mm and the safety factor climbs from 1.63 to 3.30, with tip deflection dropping to 1.39 mm.

Open Advisor Mode →
402:10 · Draw

Produce the shop drawing — dimensioned, callouts and all

problem · The shop can't build from a 3D model and a safety factor.tool · Drawing Studio
8877665544332211AABBCCTOP VIEW9054154575152739FRONT VIEW125 HOLES ⌀16R9HOLE SCHEDULE⌀16 ×5 THRUNOTES — UNLESS OTHERWISE STATED1. ALL DIMENSIONS IN MILLIMETRES.2. GENERAL TOL. PER ISO 2768-mK. LINEAR ±0.1 ANGULAR ±0.5°3. REMOVE ALL BURRS & SHARP EDGES.4. DO NOT SCALE FROM DRAWING.Ra 3.2MyIngenieurMOUNTING BRACKETMATERIALSteel (A36)MASS357 gDRAWNMyIngenieurDATE2026-08-20DWG NOMI-1042SCALE1:1REVATHIRD ANGLEISO 128 · ASME Y14.5 · SHEET 1/1
Section carried straight from the review — 12 mm, the thickness the Advisor signed offOpen the Drawing Studio →

Views, dimension lines, centre marks, the grouped 5 HOLES ⌀16 callout, hole schedule and title block are all generated from the geometry — change the part and the drawing re-dimensions itself. It cannot drift out of sync with the model the way a hand-drafted sheet does.

502:50 · Deliver

Walk away with the paperwork done

problem · Now write it all up for the design file.tool · Auto-generated report
Engineering design package
ENGINEERING DESIGN PACKAGE — Sensor Mounting Bracket
Generated by MyIngenieur · plan → design → review, end to end

1  PROJECT PLAN
   Discipline        Mechanical (course project)
   Timeline          17 working days across 6 phases
   Critical path     10 tasks
   Top risk          FEA reveals inadequate safety factor

2  DESIGN (as first drawn)
   Material          Steel (A36)
   Section           30.00 mm × 8.00 mm, 0.250 m arm
   Load              196 N (20 kg sensor)
   Max stress        153.1 MPa
   Tip deflection    3.99 mm
   Safety factor     1.63

3  REVIEW — FAIL
   1. [MEDIUM] Safety factor is below the usual design target of 2
      → For margin, take the height to 11.37 mm. If the load is truly static and known, 1.63 may be accepted with justification.
   2. [HIGH] Tip deflection exceeds the serviceability limit
      → Deflection scales with h³, so it governs here. A section height of 11.37 mm brings the tip inside the span/180 limit (and comfortably clears strength). Alternatively, shorten the span or add a support.

4  RESOLUTION
   Advisor fix       section height → 11.37 mm
   New safety factor 3.30
   New deflection    1.39 mm

Method: Euler-Bernoulli bending (I = b·h³/12, σ = 6PL/bh², δ = PL³/3EI) + Critical Path Method.
Verify against project design standards before release.
Plan, design, review, document — in one place.

No spreadsheets, no hand calcs, no context-switching between five tools. Every number on this page was computed by the same verified engines you get inside the app.