Video summary
COMO FAZER REMAP NO STREET CAR CLUB S6 !!
Main summary
Key takeaways
Storyline / Video Purpose
- This video is a tutorial-style guide for making a remap (“remap”) in Street Car Club S6.
- The creator stresses that the remap shown is not for competition eligibility and not meant to be used for “business” sales. It’s presented mainly to teach newcomers and improve community knowledge-sharing.
- The video compares tuning under different car conditions using two main remap procedures:
- Naturally aspirated (aspirated) phase
- Turbo / “tube” phase (where turbine behavior and pressure become critical)
Gameplay / Systems Context (What “Remap” Tuning Affects)
- The remap controls how the car responds via oxygen/lambda/probe behavior across RPM cells.
- Tuning steps include:
- adjusting cell size (which affects how the probe/oxygen reading changes),
- setting low and high endpoints,
- using interpolation to fill in the in-between RPM cells.
- A key goal is to tune the probe so it oscillates within a desired range—often targeting values like 84–85 (depending on fuel/engine).
Key Strategies and Tuning Workflow (Highlights)
Core Comparison: Original vs Damaged/Junkyard Parts
- The tutorial contrasts:
- a more original/less worn car (probe behavior stays steadier)
- vs a junkyard car (probe fluctuates more, especially with turbo/turbine behavior)
- The creator demonstrates how engine behavior changes as the car warms up, including:
- differences before vs after heating
- probe oscillation changes
- RPM response changes
Required Tool / Testing Approach
- He recommends tuning with a dynamometer (“Dina”) because it makes repeat testing easier.
- If you don’t have Dina, he suggests testing on the street/near airports in a safe/low-risk area, with practical cautions such as:
- avoiding police trouble
- being careful with fuel canisters
Step-by-Step Remap Procedure (As Explained)
1) Aspirated (Naturally Aspirated) Phase Setup
- Choose the correct probe target based on fuel type, for example:
- diesel ~90
- gasoline ~84
- ethanol ~82
- Start from a stationary RPM baseline (he references ~1600 RPM as an example).
- Tune the low-side cells first:
- use small groups of changes
- after each adjustment, watch the probe oscillation
- After setting endpoints, use interpolate so the curve fills smoothly.
- Test on the road:
- shift gears to keep the engine under meaningful load
- check probe stability and whether oscillation is too aggressive
- Warning: don’t leave the probe too close to the edge (e.g., hovering around 83–84/84–85) because it can fluctuate and reduce power consistency.
2) Use Dina to “Settle” (Comfort/Consistency)
- Dina is described as transferring street-like comfort into roller testing.
- Technique described:
- place the vehicle on rollers
- adjust load/roller weight using keyboard controls (he references easing/releasing weight)
- target an RPM line and keep it stable
- Then adjust map cells so the probe oscillates in the desired band (often aiming for 84–85).
- The intent is to maintain consistency without requiring constant saves during tuning.
3) Transition: Aspirated → Turbo / “Tube” Phase (Yaris Example)
- After aspirated tuning, the creator transitions to turbo/tube tuning with a modified Yaris setup.
- Turbo tuning emphasizes:
- watching turbine pressure
- ensuring the probe/oxygen behavior follows correctly once boost begins
- using Westgate adjustments in batches of 2–3 to reach correct pressure behavior
- Major rule reiterated:
- during turbo phase, don’t keep “messing” with the aspirated section—turbo tuning has its own correct logic.
Key “Do / Don’t” Rules
Do
- Tune aspirated endpoints first
- Then interpolate
- Then move into turbo/tube tuning using the same endpoint + interpolation concept
- In turbo phase:
- manage turbine pressure
- allow the system to reach the correct boost state before final fine-tuning
Don’t
-
Don’t increase aspirated section cells while in turbo/tube phase It can “mess up” turbine behavior and force a restart from scratch.
-
Don’t leave turbo tuning in unsafe visual states He specifically admonishes to use a gage cover / avoid leaving the gate open in the way he once did.
Cell-Shape Rule (Important)
- Cells must form an increasing pattern along the curve.
- He states a cell cannot behave like it “decreases” relative to the required increasing structure.
Gameplay / Behavior Observations Used as Evidence
- Turbo spool/response:
- probe oscillations rise when boost begins
- tuning must ensure stability once pressure kicks in
- Performance outcome measurement:
- he references horsepower gains shown by the fulltech system (including a jump such as +99 horsepower)
- Common tech issues:
- PC/laptop delay/lag during Dina runs can affect what the numbers appear to show
- Safety/incident note:
- he describes an unexpected situation (run out of gas / near loss of control) and briefly explains how he handled it (including pushing the car)
Final Recap (What to Remember)
- Aspirated phase:
- set two endpoints
- interpolate
- settle probe oscillation through consistent testing
- Turbo/tube phase:
- uses the same fundamentals (endpoints + interpolation), but:
- turbine/boost introduces less precision in low-speed regions
- you must manage boost pressure (Westgate)
- accept a settling/response time after pressure changes
- don’t alter aspirated logic once you’re fully in tube phase
- uses the same fundamentals (endpoints + interpolation), but:
- Final rule emphasis:
- keep cell adjustments in the correct increasing structure—no “backward” decreasing pattern.
Gamers / Sources Featured
- No other gamers, streamers, or external sources are explicitly credited by name in the subtitles provided.