120,898
120K
Laps driven today

iRacing

Le Mans Ultimate

Assetto Corsa Competizione

Assetto Corsa

F1 25

Assetto Corsa EVO

Automobilista 2

Forza Motorsport

F1 24

F1 2021

F1 23

F1 2020



Lap 5
Segment 6
1:21.633
6th Feb 2024
iRacing
Road Atlanta - Full - Mercedes-AMG GT3 2020

The speed chart analysis reveals that driverB starts the corner with a lower speed than driverA, indicating a slower exit from the previous turn. Throughout the corner, driverB's minimum speed is lower and occurs later than driverA's, suggesting a delay in throttle application and resulting in slower acceleration out of the turn. To enhance performance, driverB should aim to maintain higher minimum speeds and optimize throttle application for better acceleration and corner exit speed. The throttle control chart comparison between driverA and driverB shows significant differences in their approach. DriverA applies the throttle earlier but less smoothly, which could lead to traction issues and a slower corner exit. In contrast, driverB applies the throttle more gradually and later, allowing for better traction management and potentially a more effective exit strategy. DriverA should consider delaying and moderating their throttle inputs to achieve a smoother increase in speed similar to that of driverB for improved lap times.
Analyzing the speed chart, it's evident that driverB is entering the corner with a lower speed compared to driverA. This is indicated by the initial left side of the chart where driverB's speed line starts below that of driverA. This suggests that driverB carried less speed from the exit of the previous corner into this one, which sets them up at a disadvantage right from the beginning. As we progress through the corner, there's a notable difference in minimum speeds; driverB's minimum speed is lower and occurs later than that of driverA. This delayed minimum speed indicates that driverB got on the throttle later than driverA, leading to a slower acceleration out of the turn. The gradient of driverB's speed increase post-corner is also less steep compared to driverA's, confirming a loss of time on corner exit for driverB. To improve performance, focusing on maintaining higher minimum speeds and optimizing throttle application will be crucial for better acceleration and overall corner exit speed.

Analyzing the throttle control chart, it's evident that driverA and driverB have distinct differences in their throttle application. DriverA initiates throttle application significantly earlier than driverB, as indicated by the steep curve in the chart. This premature application leads to a less smooth increase in speed, which can be detrimental to traction and overall corner exit speed. Conversely, driverB's graph shows a more gradual and later application of throttle, suggesting better control and potentially a more effective corner exit strategy. Furthermore, driverA's throttle input is not only premature but also reaches full application quicker than driverB. This aggressive approach can cause wheelspin or loss of rear grip, especially if the car is still settling from the cornering forces. DriverB's measured increase in throttle input allows for better traction management and acceleration out of the turn. To improve lap times, driverA should focus on delaying and moderating their throttle inputs to match the smoother curve exhibited by driverB.
