IndieGTM logo IndieGTM

Automotive Video Shot Planner

Plan high-speed car tracking shots. Visualize rolling shots, wheel close-ups, and dynamic angles.

Published: 2025-11-15
Updated: 2026-01-08

AI Storyboard Generator

The "Pre-production Engineer" for your GTM. Visualize scripts before you record.

Style
Aspect ratio
Output language
Generate a storyboard to preview.
Preview
Panels
Generate a storyboard to preview.

Unlock the Power of the Automotive Video Shot Planner

Automotive videography is one of the most demanding and expensive genres in commercial production. When you're coordinating high-speed tracking vehicles, managing safety protocols for both crew and equipment, and attempting to capture split-second moments of automotive excellence, the margin for error becomes vanishingly small. Traditional storyboarding methods—sketches on paper or static image references—simply cannot convey the dynamic relationship between camera movement, vehicle speed, lighting conditions, and environmental factors that define a successful car commercial. Every minute of production time costs money, and every reshoot due to unclear creative direction multiplies those costs exponentially.

The fundamental challenge in automotive cinematography lies in pre-visualizing three-dimensional motion at high speeds. Directors need to communicate precise camera angles to their tracking vehicle operators, gaffers must understand how sunlight will interact with chrome and paint at specific times of day, and post-production teams require clarity on motion blur expectations and speed ramping sequences. Without a comprehensive visualization tool, production teams waste valuable time on location debating shot composition, discovering impractical camera positions only after expensive equipment is already rigged, and missing golden hour lighting because creative alignment took too long. The cost of miscommunication in automotive shoots isn't just financial—it's also about safety, as unclear blocking can put crew members at risk during high-speed sequences.

A dedicated Visualizer transforms this chaotic process into a systematic, efficient workflow. By allowing directors and cinematographers to prototype shots digitally before arriving on location, teams can identify potential problems, optimize camera positions for maximum dramatic effect, and create a shared visual reference that aligns every department from pre-production through post. This tool eliminates the guesswork around tracking speeds, camera mounting positions, lens choices, and lighting setups, ensuring that when you're burning through expensive location permits and coordinating multiple vehicles, every shot is executed with precision and purpose. The result is not just cost savings, but higher quality footage that captures the visceral excitement and beauty that makes automotive commercials unforgettable.

Top 3 Use Cases for car video shoot

  • Rolling Tracking Shots with Dynamic Speed Visualization: The quintessential automotive commercial shot requires perfect synchronization between the hero vehicle and the tracking camera car, often at speeds exceeding 60 mph. A visualizer allows you to plan the precise relationship between both vehicles, determine optimal camera mounting positions (roof rack, side mount, or follow vehicle), and preview how different focal lengths will compress or expand the sense of speed. You can prototype everything from wide establishing shots that showcase the vehicle in its environment to tight close-ups of spinning wheels and aerodynamic details. For example, when shooting a luxury sedan commercial for a mountain road location, you could pre-visualize a sequence that starts with a helicopter-to-tracking-vehicle handoff, transitions to a side-mounted ultra-wide shot capturing the car hugging curves with a dramatic cliff backdrop, then transitions to a tight 200mm compressed shot showing the vehicle emerging from a tunnel with lens flare—all planned with specific sun angles and speed requirements documented before the crew ever leaves the production office.
  • Wheel and Detail Close-Up Choreography: Automotive commercials live and die on their ability to showcase tactile details—the intricate spoke design of custom wheels, the brake caliper glowing red-hot during hard stops, tire tread deforming under acceleration, or rain droplets cascading across a pristine paint finish. These shots require extreme precision in camera positioning, often using specialized rigs like robotic arms or precision sliders, combined with exact lighting to reveal texture and dimension. A shot planner lets you map out the camera's relationship to specific vehicle components, determine whether you need macro lenses or standard focal lengths with extension tubes, and preview how different lighting angles will create the dramatic shadows and highlights that make details pop. For example, planning a wheel spin-up sequence for a performance electric vehicle launch might involve visualizing a ground-level camera positioned 18 inches from the tire at a 15-degree upward angle, with two high-speed lights positioned to create rim lighting on the spokes while a third creates dramatic shadows, all captured at 120fps to allow for dramatic slow-motion post-processing that transforms a simple wheel rotation into a ballet of engineering and design.
  • Multi-Angle Action Sequence Pre-Visualization: The most memorable automotive commercials combine multiple shot types into seamless action sequences—a wide establishing shot flows into a tracking lateral, which transitions to an interior driver POV, then cuts to an overhead drone shot, before finishing with a dramatic hood-mounted perspective. Coordinating these varied angles requires meticulous planning to ensure visual continuity, matching lighting conditions, and logical geographic progression. A comprehensive visualizer allows directors to create shot-by-shot breakdowns that specify camera positions, movement speeds, lens choices, and timing, ensuring that when you're coordinating multiple camera crews, drone operators, and safety personnel, everyone understands exactly what needs to be captured and when. For example, when planning a high-performance sports car commercial showcasing a track day experience, you might visualize a 45-second sequence that begins with a drone shot descending from 200 feet to follow the vehicle into turn one, cuts to a low-angle wide shot capturing the car apex through the corner with dramatic tire smoke, transitions to a hood-mounted camera showing the driver's precise steering inputs, then cuts to a tracking vehicle shot highlighting the aggressive rear diffuser and exhaust notes, and concludes with a static beauty shot as the car rolls to a stop in the pit lane—all with specific notes about golden hour timing, required shutter speeds for motion blur, and audio capture points for post-production sound design.

How to prompt for car video shoot (Step-by-Step Guide)

Step 1: Define the Primary Action and Vehicle Behavior
Start by clearly describing what the vehicle is doing in the shot. Is it accelerating from a standstill with tire smoke? Drifting through a corner? Cruising at constant speed on a highway? Performing a precision parking maneuver? The vehicle's action determines everything else about the shot. Be specific about speed ("accelerating from 0-60 mph" vs. "cruising at constant 45 mph"), driving behavior ("aggressive cornering with visible body roll" vs. "smooth, stable highway driving"), and any special effects ("tire smoke," "water spray," "dust plumes"). A good input: "Sports car drifting through 90-degree corner, significant tire smoke, speed approximately 35-40 mph, driver visible through side window." A bad input: "Car going fast."

Step 2: Specify Camera Position and Movement Relationship
Describe where the camera is positioned relative to the vehicle and whether it's static or moving. Is it mounted on the vehicle itself (hood, roof, door)? On a separate tracking vehicle (side-by-side, following, leading)? Static on the ground or elevated on a crane? If moving, describe the camera's motion ("tracking left to right," "orbiting around stationary vehicle," "descending from high to low"). Include distance from subject ("3 feet from driver door" vs. "50 feet away") and height ("ground level," "roof height," "20 feet elevated"). Good input: "Camera mounted on tracking vehicle 10 feet away from passenger side, matching speed, positioned slightly behind to create leading lines." Bad input: "Camera follows car."

Step 3: Detail Lighting Conditions and Visual Atmosphere
Automotive surfaces are highly reflective and dramatically affected by lighting. Specify time of day ("golden hour," "midday harsh sun," "blue hour dusk," "night with practical lights"), light direction relative to camera and vehicle ("backlit with rim lighting on edges," "front-lit showing paint details," "side-lit creating dramatic shadows"), and atmospheric conditions ("light fog for depth," "wet pavement with reflections," "dust in air catching light"). Good input: "Golden hour sunset, sun positioned behind and to the left of vehicle creating rim lighting on roof line, slight atmospheric haze adding depth, wet asphalt reflecting vehicle and sky." Bad input: "Nice lighting."

Step 4: Specify Lens Choice and Desired Visual Effect
Different lenses create dramatically different feelings. Wide-angle lenses (16-35mm) exaggerate speed and space, creating dynamic distortion. Standard lenses (35-70mm) provide natural perspective. Telephoto lenses (70-200mm+) compress space and isolate subjects. Include desired motion blur or sharpness ("fast shutter freezing all motion" vs. "slight motion blur on wheels suggesting speed") and depth of field ("shallow focus isolating vehicle from background" vs. "deep focus showing environment context"). For example: Describe the camera angle, lighting, and action (e.g., 'Wide shot, cinematic lighting')—but make it specific like: "Ultra-wide 16mm lens mounted 2 feet from front bumper capturing low-angle perspective, golden hour backlight, sports car accelerating toward camera with slight motion blur on wheels, f/8 for moderate depth maintaining focus on vehicle while softly blurring background, creating sense of speed and power."

FAQ

How do I plan rolling shots with multiple camera angles?
Use the visualizer to map out each camera position relative to both the hero vehicle and tracking vehicle. Start by defining the primary tracking shot (typically a side-lateral or three-quarter angle), then layer in secondary angles like hood-mounted POV, ground-level wheel close-ups, or elevated crane shots. For each angle, specify the distance between vehicles, camera height, lens focal length, and vehicle speed. The visualizer helps you identify which shots can be captured simultaneously with multiple camera crews versus which require separate passes, optimizing your production schedule and ensuring you don't miss critical lighting windows.
What's the best way to simulate motion blur and speed effects?
Motion blur in automotive videography is controlled by shutter speed relative to vehicle speed and camera movement. The visualizer allows you to preview how different shutter speeds (e.g., 1/50s vs 1/500s) will affect the final image at specific vehicle speeds. For dramatic speed effects, use slower shutter speeds (1/50s - 1/100s) to create motion blur on wheels and background while keeping the vehicle body sharp. For high-speed action or sequences requiring heavy slow-motion, use faster shutter speeds (1/500s+) to freeze all motion. You can also simulate panning motion blur by matching camera rotation speed to vehicle movement, keeping the car sharp while streaking the background—the tool helps you calculate the exact pan speed needed based on focal length and distance.
How should I plan lighting for reflective car surfaces and chrome details?
Automotive surfaces present unique lighting challenges because paint, chrome, and glass all reflect their environment. Use the visualizer to map out natural light positions (sun angle at specific times) and identify how reflections will appear on different vehicle surfaces from your chosen camera angles. For chrome wheels and trim, side lighting or rim lighting creates dramatic highlights and reveals texture. For paint finishes, slightly diffused light from a 45-degree angle shows depth and color saturation while minimizing harsh reflections. The tool allows you to preview how polarizing filters will affect reflections and glare, helping you decide whether to use them for richer colors (at the cost of some reflections) or embrace reflections for a more dynamic, realistic look. For night shoots, plan practical light positions that will reflect attractively in paint and windows rather than creating distracting hotspots.

Related tools