Plane Crazy thrust vectoring gives aircraft dynamic control over propulsion direction to dramatically improve pitch and yaw handling. In the Roblox physics sandbox created by Plane Crazy Developers, redirecting your thrusters allows fighters to break conventional flight limits, execute tight maneuvers against tailing opponents, or achieve vertical take-off and landing (VTOL).
While conventional jets rely exclusively on aerodynamic control surfaces, vectoring the engine nozzle applies direct rotational force regardless of current airspeed.
How Thrust Vectoring Works in Plane Crazy
Standard aircraft in Plane Crazy mount their engines in fixed positions, pushing the airframe straight forward while aerodynamic wing flaps or control surfaces adjust the flight path. A thrust vectoring control (TVC) engine mounts propulsion blocks onto rotational joints—most commonly Motor 2 components—allowing the thrust itself to point in different directions.
According to community documentation, thrust vectoring primarily benefits two axes of motion:
- Pitch (Up and Down): Tilting the nozzle upward or downward forces the tail in the opposite direction, producing rapid nose pitch authority.
- Yaw (Left and Right): Angling the nozzle horizontally swings the tail, allowing rapid yaw adjustments without relying solely on vertical stabilizers.
While players can configure vectoring for roll control, community guides note that using engine vectoring to roll an aircraft is generally not recommended, as standard ailerons or manual flaps handle roll more reliably.
How to Build a Basic Thrust Vectoring Engine
Setting up a basic thrust vectoring engine on small aircraft requires only a few core blocks. The standard community setup utilizes the following sequence:
- Place the Engine: Install your preferred propulsion block (such as a rocket, jet engine, or hover drive) on the assembly.
- Mount Rotational Motors: Attach one or two Motor 2 blocks to the engine assembly. These motors control the yaw and pitch pivoting axes, similar to the joint mechanics found on player-built turrets.
- Configure Angle Limits: Access the Motor 2 settings to restrict the rotation angle so the engine does not spin out of control. Depending on your preferred playstyle, you can map the motor inputs to keybinds or set them to mouse tracking for direct cursor aiming.
- Tune for Specialized Flight: If you are building a VTOL aircraft, configure the tilt motor to a 90-degree limit to alternate between vertical lift and horizontal forward flight without needing separate lift engines.
Advantages and Disadvantages of TVC
| Feature | Details | Source Reference |
|---|---|---|
| Dogfight Agility | Allows aircraft to reverse positions or target pursuers directly on their six o'clock position | Community Wiki |
| VTOL Capability | Enables vertical takeoff and hovering without dedicating space to extra lift engines | Community Wiki |
| Versatility | Functions outside aircraft; also works underwater on custom submarines | Community Wiki |
| Space Cost | Joint mechanisms and clearance areas demand internal fuselage volume | Community Wiki |
| Complexity | Setting up multi-axis Motor 2 limits can be challenging for beginner builders | Community Wiki |
Advanced TVC Optimization: Compressors and Angle Locks
Recent advancements in modern building techniques have significantly streamlined thrust vectoring designs. In a guide shared by Captain black on YouTube, builders leverage newer block mechanics to enhance both the aesthetic detailing and raw agility of TVC nozzles.
Collision-Free Nozzles with Angle Locks
Earlier TVC designs suffered from nozzle clipping, where moving engine parts would collide with the surrounding fuselage. Angle Lock blocks allow builders to set exact rotations while providing collision-free properties without turning transparent at close range. Placing angle locks around moving nozzle sections prevents structural jams while maintaining a clean, gap-free exterior.
Compressor Towers for Heavy Thrust
To maximize performance without ballooning the aircraft's physical footprint, builders connect compressor towers directly to the TVC nozzle. Because compressors move blocks instantly in exact increments (where a setting of 1 equals 1 full block and 0.5 equals a half block) and produce weightless connections, players can compress multiple hover thrusters into a single moving nozzle. This creates immense directional force while keeping the tail assembly light.
Frame Rate Considerations
When linking complex moving assemblies, avoid using excessive compressor blocks as pure connectors. As highlighted in community testing, Angle Lock blocks are significantly more optimized and reduce client-side FPS lag compared to dense chains of compressors.
Thrust Vectoring in PVP and Alternative Builds
In dedicated PVP servers, thrust vectoring distinguishes high-tier dogfighters from basic builds:
- Post-Stall Maneuvers: PVP fighters using TVC can redirect their nose and weapons toward targets even during near-zero airspeed situations where traditional wings produce no control authority.
- Aerial Nuisance Objects (ANOs) and Shredders: Thrust vectoring principles also extend into non-traditional builds. For example, specialized gyro cores (such as Mew's Gyro) utilize opposing thrust vectoring to generate rotational torque, enabling the craft to snap turn while completely stationary.
Frequently Asked Questions
Can thrust vectoring engines be used for VTOL aircraft?
Yes. Setting the pitch rotation of your vectoring motor to 90 degrees allows the engine to point straight down for takeoff and landing, then rotate horizontally for conventional forward flight.
Does thrust vectoring work on underwater builds?
Yes. Community documentation confirms that thrust vectoring mechanics operate underwater, allowing builders to control the pitch and yaw of submarines without relying purely on ballasts or rudders.
Should I use thrust vectoring to roll my plane?
Generally, no. Community flight documentation advises against routing roll inputs through thrust vectoring, as it can cause instability. Standard wing flaps or dedicated roll control surfaces yield far more predictable handling.
