114,324
114K
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 1
Segment 10
2:09.417
6th Feb 2024
iRacing
Mount Panorama Circuit - Ferrari 296 GT3
The speed chart analysis reveals that driverB enters the corner with less speed than driverA, which affects their pace throughout the section. DriverB's minimum speed is also lower and occurs later in the corner, indicating a delay in throttle application and resulting in slower acceleration out of the corner. To improve, driverB should focus on carrying more speed through the apex and timing their throttle application better to optimize exit speed. On the other hand, driverA applies throttle too early in the corner, leading to a less efficient exit. DriverA needs to delay their throttle application to improve exit speed and lap time. Additionally, driverA's jagged throttle increase mid-corner suggests issues with wheelspin or traction loss, causing time wastage. To address this, driverA should aim for smoother acceleration by carefully modulating the throttle to maintain traction and thus improve speed through this phase. In summary, both drivers have areas for improvement: driverB needs to maintain momentum into the corner and apply throttle earlier for a better exit strategy, while driverA should work on delaying their throttle input for efficiency and focus on smoother acceleration mid-corner to avoid traction issues. By addressing these points, both drivers can potentially enhance their performance on this section of the track.
Analyzing the speed chart, it's evident that driverB is entering the corner with a lower speed compared to driverA. This is immediately noticeable at the very start of the chart on the left, indicating that driverB exited the previous corner with less momentum. This initial speed deficit carries through into the corner, contributing to a slower overall pace through this section. Mid-corner, driverB's minimum speed is lower than that of driverA and occurs later. This suggests that driverB is not carrying as much speed through the apex as driverA. Consequently, this delay in reaching minimum speed implies a later throttle application for driverB, which hinders acceleration out of the corner. The impact of this is visible in the gradient of driverB's speed chart post-apex; it's less steep compared to driverA's, indicating slower acceleration and thus time lost on corner exit. DriverB should focus on maintaining more speed through the middle of the corner and timing their throttle application to optimize their exit speed.
Analyzing the throttle control chart, it's evident that driverA is applying throttle significantly earlier than driverB in the corner. This premature application of throttle is resulting in a less efficient corner exit, as indicated by the early rise in the graph compared to driverB's smoother and later increase. DriverA needs to delay their throttle application to match the timing of driverB, which will likely result in a higher exit speed and improved lap time. In the middle of the corner, there is a distinct difference between driverA and driverB's throttle application. DriverA shows a jagged increase which suggests difficulty with wheelspin or lack of traction, while driverB maintains a steadier increase. This indicates that driverA is losing time due to suboptimal throttle control. To improve, driverA should focus on smoother acceleration through this section, possibly by modulating the throttle more carefully to maintain traction and therefore speed through the mid-corner phase.
