Benefits of Supporting Unnormalized Axes

Oct 13, 2025 by miodeya.com 129 views

Introduction

The bi-entity version of apoli:add_velocity is a powerful tool for motion manipulation in various applications. However, its current implementation has a limitation that restricts its flexibility and versatility. Specifically, it only supports normalized axes, which can be a hindrance when working with certain types of motion or scenarios. In this article, we will explore the benefits of supporting unnormalized axes for bi-entity apoli:add_velocity and discuss some possible use cases.

What are Unnormalized Axes?

Unnormalized axes refer to a coordinate system where the axes are not normalized to a fixed length. In other words, the axes are not scaled to a standard unit, and their length can vary depending on the context. In the case of bi-entity apoli:add_velocity, unnormalized axes would mean that the applied velocity is not constant in strength, but rather depends on the distance between the target and actor entities.

Benefits of Supporting Unnormalized Axes

Supporting unnormalized axes for bi-entity apoli:add_velocity would offer several benefits, including:

Increased flexibility: By allowing for unnormalized axes, developers can create more complex and nuanced motion behaviors that take into account the distance between entities.
Improved versatility: Unnormalized axes would enable developers to create a wider range of motion effects, from linear to inverse, and everything in between.
Enhanced realism: By simulating real-world physics, unnormalized axes can create a more immersive and realistic experience for users.

Possible Use Cases

Here are some possible use cases for bi-entity apoli:add_velocity with unnormalized axes:

Linear motion: The applied velocity is stronger the further the target is from the actor. This can be useful for creating effects like explosions or shockwaves that propagate through space.
Inverse motion: The applied velocity is stronger the closer the target is to the actor. This can be useful for creating effects like gravitational pulls or magnetic forces that attract entities.
Normalized motion: The default; applied velocity is equal in strength regardless of the distance between target and actor. This is the current implementation of bi-entity apoli:add_velocity.

Implementation Details

To support unnormalized axes for bi-entity apoli:add_velocity, the following implementation details would need to be considered:

Axis calculation: The axes would need to be calculated based on the distance between the target and actor entities. This could involve using a formula that takes into account the magnitude of the distance vector.
Velocity scaling: The applied velocity would need to be scaled based on the distance between the target and actor entities. This could involve using a formula that takes into account the magnitude of the distance vector.
Axis normalization: To ensure that the axes are properly normalized, a normalization factor would need to be applied to the calculated axes.

Conclusion

Supporting unnormalized axes for bi-entity apoli:add_velocity would offer several benefits, including increased flexibility, improved versatility, and enhanced realism. By allowing for unnormalized axes, developers can create more complex and nuanced motion behaviors that take into account the distance between entities. While implementation details would need to be considered, the benefits of supporting unnormalized axes make it a worthwhile addition to the bi-entity apoli:add_velocity feature.

Future Work

Future work on supporting unnormalized axes for bi-entity apoli:add_velocity could involve:

Testing and validation: Thorough testing and validation of the feature to ensure that it works as intended and does not introduce any bugs or performance issues.
Documentation and tutorials: Providing documentation and tutorials to help developers understand how to use the feature and create complex motion behaviors.
Community engagement: Engaging with the community to gather feedback and suggestions on how to improve the feature and make it more useful for developers.

References

Apoli Documentation
Bi-Entity apoli:add_velocity Documentation
Unnormalized Axes
Q&A: Supporting Unnormalized Axes for Bi-Entity apoli:add_velocity ====================================================================

Introduction

In our previous article, we discussed the benefits of supporting unnormalized axes for bi-entity apoli:add_velocity. In this article, we will answer some frequently asked questions (FAQs) about this feature and provide additional information to help developers understand how to use it.

Q: What are unnormalized axes?

A: Unnormalized axes refer to a coordinate system where the axes are not normalized to a fixed length. In other words, the axes are not scaled to a standard unit, and their length can vary depending on the context.

Q: Why do we need unnormalized axes for bi-entity `apoli:add_velocity`?

A: Supporting unnormalized axes for bi-entity apoli:add_velocity would offer several benefits, including increased flexibility, improved versatility, and enhanced realism. By allowing for unnormalized axes, developers can create more complex and nuanced motion behaviors that take into account the distance between entities.

Q: How do I calculate the axes for unnormalized axes?

A: To calculate the axes for unnormalized axes, you would need to use a formula that takes into account the magnitude of the distance vector between the target and actor entities. This could involve using a formula like axes = distance_vector / magnitude(distance_vector).

Q: How do I scale the velocity for unnormalized axes?

A: To scale the velocity for unnormalized axes, you would need to use a formula that takes into account the magnitude of the distance vector between the target and actor entities. This could involve using a formula like velocity = velocity * magnitude(distance_vector).

Q: What are some possible use cases for unnormalized axes?

A: Some possible use cases for unnormalized axes include:

Linear motion: The applied velocity is stronger the further the target is from the actor.
Inverse motion: The applied velocity is stronger the closer the target is to the actor.
Normalized motion: The default; applied velocity is equal in strength regardless of the distance between target and actor.

Q: How do I implement unnormalized axes in my game?

A: To implement unnormalized axes in your game, you would need to follow these steps:

Calculate the axes: Use a formula to calculate the axes based on the distance between the target and actor entities.
Scale the velocity: Use a formula to scale the velocity based on the magnitude of the distance vector.
Apply the velocity: Apply the scaled velocity to the target entity.

Q: What are some common pitfalls to avoid when using unnormalized axes?

A: Some common pitfalls to avoid when using unnormalized axes include:

Incorrect axis calculation: Make sure to use the correct formula to calculate the axes.
Incorrect velocity scaling: Make sure to use the correct formula to scale the velocity.
Incorrect axis normalization: Make sure to apply a normalization factor to the calculated axes.

Q: How do I troubleshoot issues with unnormalized axes?

A: To troubleshoot issues with unnormalized axes, you can try the following:

Check the axis calculation: Verify that the axes are being calculated correctly.
Check the velocity scaling: Verify that the velocity is being scaled correctly.
Check the axis normalization: Verify that the axes are being normalized correctly.

Conclusion

Supporting unnormalized axes for bi-entity apoli:add_velocity is a powerful feature that can add depth and realism to your game. By understanding how to use this feature, you can create more complex and nuanced motion behaviors that take into account the distance between entities. We hope this Q&A article has been helpful in answering your questions and providing additional information to help you get started with using unnormalized axes in your game.