Examples

import tif1

# Load a session
session = tif1.get_session(2025, "Abu Dhabi Grand Prix", "Race")

# Access lap data
laps = session.laps
print(f"Total laps: {len(laps)}")
```python

## Working with Drivers

```python
# Get all drivers in the session
drivers_df = session.drivers_df
print(drivers_df[["Driver", "Team", "DriverNumber"]])

# Get specific driver
ver = session.get_driver("VER")
ver_laps = ver.laps

# Get driver's fastest lap
fastest = ver.get_fastest_lap()
print(f"Fastest lap: {fastest['LapTime'].iloc[0]}")
```python

## Telemetry Analysis

```python
# Get telemetry for a specific lap
lap = ver.get_lap(19)
telemetry = lap.telemetry

# Analyze speed and throttle
print(telemetry[["Time", "Speed", "Throttle", "Brake"]].head())

# Find maximum speed
max_speed = telemetry["Speed"].max()
print(f"Max speed: {max_speed} km/h")
```python

## Fastest Laps

```python
# Get fastest lap per driver
fastest_by_driver = session.get_fastest_laps(by_driver=True)
print(fastest_by_driver[["Driver", "LapTime", "Compound"]])

# Get overall fastest lap
overall_fastest = session.get_fastest_laps(by_driver=False)

# Get telemetry for fastest laps (parallel fetching)
fastest_tels = session.get_fastest_laps_tels(by_driver=True)

# Get telemetry for specific drivers
top3_tels = session.get_fastest_laps_tels(
    by_driver=True,
    drivers=["VER", "HAM", "LEC"]
)
```python

## Async loading for speed

```python
import asyncio
import tif1

async def load_session_data():
    session = tif1.get_session(2025, "Monaco Grand Prix", "Race")
    # 4-5x faster than synchronous loading
    laps = await session.laps_async()
    return laps

laps = asyncio.run(load_session_data())
```python

## Using Polars lib

```python
# Use polars for 2x faster processing
session = tif1.get_session(
    2025,
    "Las Vegas Grand Prix",
    "Race",
    lib="polars"
)

laps = session.laps  # Returns polars DataFrame
```python

## Configuration

```python
# Get current configuration
config = tif1.get_config()
print(f"Max retries: {config.get('max_retries')}")

# Update configuration
config.set("validate_data", True)
config.set("lib", "polars")
config.save()
```python

## Cache Management

```python
# Get cache instance
cache = tif1.get_cache()
print(f"Cache location: {cache.cache_dir}")

# Clear cache
cache.clear()

# Disable caching for a session
session = tif1.get_session(
    2025,
    "British Grand Prix",
    "Qualifying",
    enable_cache=False
)
```text ## Error Handling

```python
import tif1

try:
    session = tif1.get_session(2025, "Invalid GP", "Race")
    laps = session.laps
except tif1.DataNotFoundError as e:
    print(f"Data not found: {e}")
except tif1.NetworkError as e:
    print(f"Network error: {e}")
except tif1.InvalidDataError as e:
    print(f"Invalid data: {e}")
```python

## Event and session discovery

```python
# Get all events for a year
events = tif1.get_events(2025)
print(f"Events in 2025: {events}")

# Get sessions for an event
sessions = tif1.get_sessions(2025, "Chinese Grand Prix")
print(f"Sessions: {sessions}")
```python

## Tire strategy analysis

```python
# Analyze tire compounds used
laps = session.laps

# Group by driver and compound
tire_usage = laps.groupby(["Driver", "Compound"]).size()
print(tire_usage)

# Get stint information
stints = laps.groupby(["Driver", "Stint"]).agg({
    "LapNumber": ["min", "max", "count"],
    "Compound": "first"
})
print(stints)
```python

## Weather Data

```python
# Access weather data
weather = session.weather
print(weather[["Time", "AirTemp", "TrackTemp", "Rainfall"]].head())

# Weather is automatically included in laps DataFrame
print(laps[["LapNumber", "Driver", "AirTemp", "TrackTemp"]].head())
```python

## Logging

```python
import logging
import tif1

# Enable debug logging
tif1.setup_logging(logging.DEBUG)

# Now all operations will show detailed logs
session = tif1.get_session(2025, "Bahrain Grand Prix", "Race")
```python

## Circuit breaker status

```python
# Check circuit breaker status
cb = tif1.get_circuit_breaker()
print(f"Circuit breaker state: {cb.state}")

# Reset if needed
if cb.state == "open":
    tif1.reset_circuit_breaker()
```python

## Lap Time Comparison

```python
# Compare lap times between drivers
ver_laps = laps[laps["Driver"] == "VER"]
ham_laps = laps[laps["Driver"] == "HAM"]

# Calculate average lap time
ver_avg = ver_laps["LapTime"].mean()
ham_avg = ham_laps["LapTime"].mean()

print(f"VER avg: {ver_avg:.3f}s")
print(f"HAM avg: {ham_avg:.3f}s")
print(f"Delta: {abs(ver_avg - ham_avg):.3f}s")
```python

## Sector Analysis

```python
# Analyze sector times
sectors = laps[["Driver", "Sector1Time", "Sector2Time", "Sector3Time"]]

# Find best sector times per driver
best_sectors = sectors.groupby("Driver").min()
print(best_sectors)

# Calculate theoretical best lap
theoretical_best = best_sectors.sum(axis=1)
print(f"Theoretical best laps:\n{theoretical_best}")
```python ## Speed trap analysis

```python
# Analyze speed traps
speed_data = laps[["Driver", "SpeedI1", "SpeedI2", "SpeedFL", "SpeedST"]]

# Find maximum speeds
max_speeds = speed_data.groupby("Driver").max()
print(f"Maximum speeds:\n{max_speeds}")

# Top speed overall
top_speed = laps["SpeedST"].max()
fastest_driver = laps[laps["SpeedST"] == top_speed]["Driver"].iloc[0]
print(f"Top speed: {top_speed} km/h by {fastest_driver}")
```python

## Pit Stop Analysis

```python
# Find pit stops
pit_stops = laps[laps["PitInTime"].notna()]

# Count pit stops per driver
pit_counts = pit_stops.groupby("Driver").size()
print(f"Pit stops per driver:\n{pit_counts}")

# Analyze pit stop timing
pit_laps = pit_stops.groupby("Driver")["LapNumber"].apply(list)
print(f"Pit stop laps:\n{pit_laps}")
```python

## Race pace analysis

```python
# Clean data for race pace
clean_laps = laps[
    (~laps["Deleted"]) &
    (laps["PitInTime"].isna()) &
    (laps["LapNumber"] > 1)
]

# Calculate race pace by compound
pace_by_compound = clean_laps.groupby(["Driver", "Compound"])["LapTime"].mean()
print(f"Race pace by compound:\n{pace_by_compound}")
```python

## Tire Degradation

```python
# Analyze tire degradation
from scipy import stats

# Filter to one compound
soft_laps = laps[laps["Compound"] == "SOFT"]

# Linear regression on tyrelife vs laptime
for driver in soft_laps["Driver"].unique():
    driver_laps = soft_laps[soft_laps["Driver"] == driver]

    if len(driver_laps) > 5:
        slope, intercept, r_value, _, _ = stats.linregress(
            driver_laps["TyreLife"],
            driver_laps["LapTime"]
        )
        print(f"{driver}: {slope:.3f}s/lap degradation (R²={r_value**2:.3f})")
```python

## Position Changes

```python
# Track position changes throughout race
position_data = laps[["LapNumber", "Driver", "Position"]].pivot(
    index="LapNumber",
    columns="Driver",
    values="Position"
)

# Find drivers who gained most positions
start_positions = position_data.iloc[0]
end_positions = position_data.iloc[-1]
position_changes = start_positions - end_positions

print(f"Position changes:\n{position_changes.sort_values(ascending=False)}")
```python

## Track status analysis

```python
# Analyze track status (flags, safety car, etc.)
track_status = laps[["LapNumber", "TrackStatus"]].drop_duplicates()

# Count laps under different conditions
status_counts = laps["TrackStatus"].value_counts()
print(f"Track status distribution:\n{status_counts}")

# Find safety car periods
sc_laps = laps[laps["TrackStatus"].str.contains("4", na=False)]
if len(sc_laps) > 0:
    print(f"Safety car on laps: {sc_laps['LapNumber'].unique()}")
```python

## Qualifying Analysis

```python
# Load qualifying session
quali = tif1.get_session(2025, "Monaco", "Qualifying")
quali_laps = quali.laps

# Get best lap per driver
best_laps = quali_laps.loc[quali_laps.groupby("Driver")["LapTime"].idxmin()]
best_laps = best_laps.sort_values("LapTime")

print("Qualifying results:")
for i, (_, lap) in enumerate(best_laps.iterrows(), 1):
    print(f"{i}. {lap['Driver']}: {lap['LapTime']:.3f}s ({lap['Compound']})")
```bash

## Data Export

```python
# Export to CSV
laps.to_csv("race_laps.csv", index=False)

# Export to Parquet (smaller, faster)
laps.to_parquet("race_laps.parquet")

# Export to Excel
with pd.ExcelWriter("race_analysis.xlsx") as writer:
    laps.to_excel(writer, sheet_name="Laps", index=False)
    session.weather.to_excel(writer, sheet_name="Weather", index=False)
    session.drivers_df.to_excel(writer, sheet_name="Drivers", index=False)

# Export to JSON
laps.to_json("race_laps.json", orient="records", indent=2)
```python ## Batch Processing

```python
# Process multiple sessions
events = ["Monaco", "Silverstone", "Spa", "Monza"]

results = []
for event in events:
    try:
        session = tif1.get_session(2025, event, "Race")
        laps = session.laps

        # Calculate metrics
        fastest = laps["LapTime"].min()
        avg = laps["LapTime"].mean()

        results.append({
            "event": event,
            "fastest_lap": fastest,
            "avg_lap": avg,
            "total_laps": len(laps)
        })
    except tif1.DataNotFoundError:
        print(f"No data for {event}")

# Create summary DataFrame
import pandas as pd
summary = pd.DataFrame(results)
print(summary)
```python

## Custom analysis function

```python
def analyze_driver_performance(session, driver_code):
    """Comprehensive driver performance analysis."""
    driver = session.get_driver(driver_code)
    laps = driver.laps

    # Clean data
    clean = laps[~laps["Deleted"] & laps["PitInTime"].isna()]

    # Calculate metrics
    metrics = {
        "driver": driver_code,
        "total_laps": len(laps),
        "valid_laps": len(clean),
        "fastest_lap": clean["LapTime"].min(),
        "avg_lap": clean["LapTime"].mean(),
        "consistency": clean["LapTime"].std(),
        "compounds_used": laps["Compound"].unique().tolist(),
        "pit_stops": laps["PitInTime"].notna().sum()
    }

    return metrics

# Use the function
ver_metrics = analyze_driver_performance(session, "VER")
print(ver_metrics)
```python

<Card title="More Examples" icon="book" href="/tutorials/race-pace-analysis">
  Check out the tutorials section for detailed analysis examples.
</Card>

---

## Related Pages

<CardGroup cols={2}>
  <Card title="Getting Started" href="/getting-started">
    Comprehensive guide
  </Card>
  <Card title="Tutorials" href="/tutorials/race-analysis">
    Detailed examples
  </Card>
  <Card title="API Reference" href="/api-reference/overview">
    API documentation
  </Card>
  <Card title="Best Practices" href="/guides/best-practices">
    Optimization tips
  </Card>
</CardGroup>