If you want to change or replace a color in a video, you can do it using the free version of VSDC. Due to the built-in LUT editor, VSDC allows you to have full control of the video color scheme, so you can enhance the look of your footage, change its aesthetic, or add an artistic touch by replacing certain colors.

The best part about this color replacement trick? As long as your footage is of high quality, it’s surprisingly easy to replicate. As a matter of fact, you’ll be able to do it even if you have zero video editing experience. Moreover, you can replace a color in a video permanently (for the entire duration of the video) or temporarily as illustrated in the example above.

The only thing to keep in mind before getting started is that the color you want to replace should be unique and contrasting compared to the rest of the colors in the video (again, like in the example above). Otherwise, other objects in the video containing the same color tone might be affected by the changes.

Ready to start? Download the latest version of VSDC (Windows only) and follow the steps below.

Step 1. Import your footage to VSDC

Launch VSDC on your computer and hit Import content to upload your video. The program will automatically create a project with the parameters matching the parameters of your video. Just confirm the default selection in the pop-up window, and your footage will be added to the scene.

For this tutorial, we’re going to change the color of the background by replacing yellow with other colors.

Step 2. Create an empty LUT

The fastest and most efficient way to replace a color in a video is a custom LUT. To create one, switch to the View tab at the top and select Resources window. Then click anywhere in the Resources window using the right mouse button and select Add resources > Create LUT. A new empty LUT will be added to the list of resources.

Double-click on the video and drag the LUT from the Resources window to the timeline. Notice that by default the LUT will be added to the timeline from the playhead position, but you can move it with the mouse, too.

Once the LUT is on the timeline, go back to the Resources window and double-click its cube-shaped icon to open the LUT settings.

The gradient histogram represents all existing color tones, and the white spots visualize the color tones in that particular video. Using control points (the intersections of rays and circles), we can adjust any color tone in the video and change its saturation level or hue. The latter is exactly what we’ll do in the next step.

Step 3. Replace the color in your video

To replace color A with color B in a video, you need to select the corresponding control points in the color A section and drag them to the color B section on the histogram.

For our example, we can grab the brightest yellow tone control point and drag it to any other color section. You’ll be able to see the result immediately.

Notice that the entire ray of yellow color tones is dragged along. This approach produces an impeccable result and works well for most videos. In a moment, we’ll show you what happens if some of the tones remain unchanged.

How to find the right control point on the grid

Our footage makes it easy to tell which control point we should select. However, in your case, things might look different. Because of the spectrum of tones and shades, it may be unobvious how to find the right color on the gradient and which control points you should be working with.

For these cases, the eyedropper tool comes in handy. Select the eyedropper icon from the right-side menu and go to the preview window to click on the color you want to replace. The corresponding point on the grid will be selected automatically.

From there, you can try and work with the suggested control point. However, be prepared for further adjustments. In our example, the major part of the background has been replaced, however, there are noticeable artifacts in the areas where the yellow tone was brighter.

In our case, it’s an easy fix. All we need is to drag the remaining control point from the yellow section to the blue section.

Color tones can be tricky, especially if a video was shot with insufficient light. If things don’t look the way you expected right away, don’t get discouraged and try to toggle the controls a bit. For example, you may want to move control points of the same color section one by one to see how each of them affects the result. You may also want to increase the number of control points by changing the number of rays and circles on the grid.

Finally, we recommend reading this detailed guide to working with the LUT editor to better understand its toolset.

Step 4. Preview the result and export your video

Use the Preview feature, and if you’re happy with the look of the video, hit OK in the LUT editing window to close it. Next, before proceeding to export, make sure that the duration of the LUT on the timeline aligns with your goals.

For example, if you want the selected color to be replaced for the duration of the entire video, the LUT layer should have the same duration as the video you’ve applied it to. However, if you need the color replacement to be temporary, shorten the LUT layer and place it accordingly on the timeline.

Once ready, go to the Export tab and save the video to your computer.

Bonus: how to change the color of the same object more than once

Now that you’ve learned how to use LUTs to change a color in a video, feel free to experiment! For example, you can try to replicate the popular “chameleon” effect and make an object in a video change color multiple times – just like at the beginning of this tutorial.

To achieve this effect, you’ll need to create as many empty LUTs as many times you want the object’s color to change. Adjust the settings for each LUT following the guidelines from above, then shorten their duration and merge them on the timeline.

In our example, there are 5 LUTs with different color replacement settings visible somewhere between the 3rd and the 20th seconds. When you start working on your video, you will be able to fine-tune all these nuances: decide on the number of LUTs, their sequence, and duration.

Explore more color editing tricks with VSDC

If you like working with color, and you’d like to learn more tricks, go straight to the VSDC YouTube channel and browse through the videos. There’s much more to it than just color grading! For instance, if you always wanted to replicate the famous Sin City effect (which means dimming all tones in a video except for one color), below is a tutorial to help you achieve that. Enjoy!

Got any questions about the effect? Email us at This email address is being protected from spambots. You need JavaScript enabled to view it.

Looking for inspiration for your next video? Check our YouTube channel.

Do you want to record Minecraft gameplay for your YouTube channel? Maybe you want to capture your speedrun, or just make a let’s play? This means that in addition to the screen, you might also need to record your webcam or microphone — or even both at the same time.

To help you out, we’ve put together a step-by-step tutorial on how to do it using the VSDC Screen Recorder. It’s a free screen recorder for Windows PC with a built-in game capturing mode that allows you to save footage in ultra-high resolution.

Without further ado, let’s dive right in.

Step 1. Launch VSDC Screen Recorder on your PC

After you’ve installed VSDC on your PC, you can launch it through the shortcut on your desktop. Once opened, you will see this window:

The interface is pretty simple and user-friendly, so you should have no trouble navigating it, even if you’re not tech-savvy. Before getting started, you’ll need to enable your recording devices. Let’s see how you can do it.

Step 2. Enable recording devices

If your webcam and/or microphone are external (not built-in), you’ll need to connect them to your PC first. After doing that, click the Enable sound button to enable microphone sound in your video, and hit Enable camera to record video from your webcam.

Keep in mind that if you choose to record your Minecraft gameplay using the Game capturing mode, it will be impossible to place the facecam over the game window. Instead, the webcam video will be recorded separately and you can add it to the video later (we’ll show you how to do that). To save the video from your webcam as a separate file, open the settings window, go to Mixer and tick the Save camera recording as file checkbox.

Step 3. Configure your settings

It’s important to set the software up before starting to record. For instance, you can tweak the output video quality as well as the folder where the resulting video will be saved.

To configure the details, use the Common settings and the Export settings. The former allows you to change your Output Folder by clicking Change next to the corresponding option. If you leave the default settings, your video will be saved to the default folder: Videos\VSDC Free Screen Recorder. The latter allows you to configure the number of frames per second, resolution, hotkeys, and the overall quality of the recording. We recommend keeping the quality at 70-80%.

Once you’re done, the settings will be saved automatically.

Step 4. Record your Minecraft gameplay

You can now launch Minecraft. In the VSDC taskbar, right-click on the Game Capturing button and choose the game. Then, switch to the Minecraft window and press Start recording hotkey, by default it’s Ctrl+F5.

Once you’ve finished recording your footage, press the Stop recording hotkey, which is Ctrl+F8 by default. To quickly navigate to your recordings, hit the Open Output Folder in the VSDC taskbar.

Step 5. Add your facecam to the video

If you chose to record your webcam along with the gameplay, it’s time to add it to the video. You can use any free video editing software of your choice, however, for the sake of this tutorial, we’ll use VSDC Free Video Editor.

Launch VSDC on your computer and use the Import content option to add the gameplay video to the scene. In the pop-up project settings window hit OK. Next, press Shift + V to add a new video to the scene and select your facecam video from the computer. In the pop-up window, select Add new layer, so that the facecam video is placed over the main video with the gameplay.

From there, all you need to do is grab the handlers of the facecam video and resize it and place it in the corner of your choice.

Enjoy the result

Now that you know how to record your footage, why not try it for yourself? Who knows, maybe you’ll be the next big Minecraft YouTuber! All you have to do is try. In case you want to edit your video, look through the list of tutorials here or check out the VSDC YouTube channel.

If you’re familiar with the object movement feature available in VSDC, you’ll be excited to learn about time remapping. Time remapping allows you to slow down, speed up, or reverse object movement in a selected part of its movement path. As a result, you’ll be able to create really impressive effects, like this one:

The new feature is available in VSDC Pro starting version 6.9. Below, we’ll show you how it works.

How to use time remapping in VSDC

Currently, time remapping can only be applied to moving objects. This includes images, shapes, titles, icons, or any other 3^rd-party objects added to the scene. Here is how to get started.

Create a moving object

To make an object move in a video, you need to add it to the scene, double-click it, and hit the movement icon from the left-side menu. Then place the cursor where the movement destination is and adjust the vector.

The object movement feature is newbie-friendly and straightforward, but if you’re unfamiliar with it, we have a detailed guide for you.

Open the time remapping graph

Once you’ve created the movement path, right mouse-click the movement layer on the timeline and select Properties. In the Properties window, find Time remapping, and hit the 3-dot icon to access the graph.

This graph illustrates object movement over time, and the two axes define two different aspects of it. The X axis reflects the duration of the movement effect: the left part of the timeline is the beginning of it, and the right part is the end. The Y axis reflects the object’s movement path: the bottom part of the timeline is the beginning of the path, and the top part is the end.

By modifying the graph, you can modify the object movement progress. For example, you can make the object go slower or faster through certain parts of the path, or even send it in the opposite direction. All it takes is a couple of keyframes placed in the right spots! Let’s see how you can create them.

Understanding keyframes and the Y axis

Keyframes are control points that allow you to break the graph – and therefore, the movement path – into sections so that you can work with each section independently. You can create keyframes manually by double-clicking the graph or use the templates from the menu. For this tutorial, we’ll use the former option.

Notice that the first keyframe (Y:0) indicates the initial object position on the path. The last keyframe (Y:100) is the end of the path.

As long as the graph is continuously ascending from 0 to 100, the object will be moving from point A to point B following the movement vector you created. We call it the original, unmodified time flow.

Now, let’s see what happens when we change the graph.

We’ve already mentioned that the Y axis indicates the time flow for the object. Below is a simple illustration of how you can reverse it. Suppose you want the object to go halfway through the movement vector and then go back to the initial point, at the same speed. All you need to do is create a keyframe in the middle of the graph and drag the last keyframe from 100 to 0.

Let’s break it down. The object was moving along the movement path up to the breaking point – the keyframe we created. Then, instead of continuing the movement, it started heading back because instead of continuing to ascend, the second part of the graph descends back to Y:0 which indicated the initial point on the movement path for the object. In other words, according to the Y axis, the start and the end of the movement path became the same.

Here is another way to look at it. If the angle between two subsequent keyframes is greater than zero degrees, the object time flow in this section goes in the original direction. However, if the angle between two subsequent frames is less than 0 degrees, the object time flow goes in the reversed direction.

For example, if you apply the ZigZag template from the template menu, you’ll get an object bouncing between the sides of the scene.

Note that the movement effect will continue for as long as the object is present in the video.

Understanding the X axis

Now that you have an idea of the time direction for the object, let’s go back to the drawing board and see how you can tweak movement speed at any given point in time.

Suppose you want the object to reach the middle of the way, slow down for a second, and continue at a slightly higher speed. To achieve that, place a keyframe one second past half the graph and drag it down to make that segment of the graph flatter. Here is what the result will look like:

Here is how it works. By adding a keyframe, you’ve created a new section on the graph, and by dragging the keyframe down you’ve decreased the movement speed for that section.

Suppose you want the object to briefly speed up in the middle of the path and then go back to normal speed for the rest of the way. That’s easy! Drag the new keyframe up to the desired angle and mirror its position with the central keyframe to create identical angles on the graph.

The takeaway from these two examples? The angle between two subsequent keyframes defines object movement speed. The greater the angle, the higher the movement speed is; the lower the angle, the lower the speed is.

Congratulations! By now, you should have a good understanding of how time remapping works for a single movement vector animation. However, in many cases, the object movement path contains two vectors or more. Let’s see how the time remapping graph will look in these cases, and how you should approach it.

Time remapping for multi-vector movement path

If you’ve created a movement path consisting of multiple vectors, on the time remapping graph, each vector will be represented by a light-gray rectangle. The purpose of these rectangles is to help you visualize the position of each vector in time and create keyframes accordingly.

The general approach to multi-vector movement paths is no different from what we’ve described above. However, there’s one tricky part you should keep in mind. If you decide to change any vector position in the scene, the gray rectangles will shift accordingly. The tricky part is that if you’ve already created keyframes on the graph based on those movement vectors, you’ll have to manually shift them too.

Essentially, you need to remember that keyframes aren’t attached to movement vectors. So if you want the object to move through a certain vector with a certain speed, and you’re moving that vector around, make sure to double-check the keyframes.

Have full control of object animation with remapping

Time remapping is a powerful tool, and we’re excited to introduce it in the new version of VSDC. Although we’ve gone through every step of applying this feature, there’s much more to discover. For instance, you can incorporate object rotation, transition effects, and even motion tracking.

Download VSDC 6.9 now and try it for yourself!

Bezier curves have many uses in video editing, one of which we already explored in our quick guide to drawing shapes. This time, we’ll show you how to use Bezier curves in so-called “easing curves” – the tool allowing you to control how long it takes a transition to kick in or fade out.

Please note that editing transitions along Bezier curves is only available in the Pro version of VSDC.

Step 1: Import your footage and add a transition

Making smooth transitions with the Bezier curve is a simple process. First, import your video file to the project. If you already have a blank project opened, you can just drag the video file onto the timeline. Next, add a transition. For this tutorial, we will be using the Wipe transition, but you can choose any of the ones available in the Templates window.

Step 2: Apply transition curve template

Right-click on the transition effect to open the Properties window. For our example, we’ll be working with Transition levels – the parameter setting the speed of the transition. Right-click on the tiny Parameter change icon next to Transition levels and hover over Templates. Then select “Quad Out.”

There are over a dozen options available in the menu; however, for our example, we need to use a template ending with “Out” because the transition is at the end of the video. Had we placed the transition at the beginning of the video, we would have selected a template ending with “In.”

Step 3: Configure Bezier curve

Once you apply the template, the timeline window will display a graph. The curve on the graph is based on the Transition level values, therefore, by changing this curve, you will be adjusting the pace of the transition.

To get started, find the two control points: one at the beginning of the graph and one at the end of it. These are called “keyframes.” Click on either of the keyframes, and you’ll see a vector. Grab the end of the vector and drag it around: both the length and the angle of the vector change the curve and, thus, the pace of the transition.

To adjust the transition at any specific moment, you can create additional keyframes by double-clicking on the graph. The smoother the curve is, the smoother the transition. The opposite is true: if you create a sharp curve, the pace of the transition will spike accordingly.

Create custom video effects using Bezier curves

Customizing transitions with Bezier curves is easy. You can apply them to any parameter that includes values changing along a curve and achieve outstanding video effects. Furthermore, after creating your ideal transition, you can save it as a template and use it later. Check out a quick tutorial on how to do it.