Interactive Components in Figma
Interactive Components in Figma allow designers to create reusable components that respond to user interactions directly inside a component set. They are especially useful for creating realistic prototypes for buttons, toggles, checkboxes, tabs, navigation items, dropdowns, switches, input states, and other interactive UI elements. Instead of manually creating prototype connections on every screen, interaction behavior can be built into the component itself and reused whenever an instance is placed in a design.
Interactive Components extend Figma Variants by allowing prototype interactions between variants in the same component set. When an interactive component is added to a design, its configured variant interactions are already available for prototyping.
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1. What are Interactive Components?
Interactive Components are reusable Figma components that contain predefined prototype interactions between their variants. When a user interacts with an instance, Figma can automatically switch it from one variant to another.
Default Variant
↓
User Interaction
↓
Change to
↓
Hover Variant
↓
User Clicks
↓
Pressed Variant
For example, a button can automatically change from Default to Hover when the cursor moves over it and then change to Pressed when the user clicks it.
2. Simple Definition
Interactive Components are component-set variants connected with prototype interactions so that reusable UI components can respond to user actions.
Interactive Component
=
Component Set
+
Variants
+
Prototype Interactions
3. Why are Interactive Components Important?
Traditional prototyping can require many duplicate frames and prototype connections. Interactive Components allow common component behavior to be defined once and reused across multiple instances.
- Create realistic interactive prototypes.
- Reduce repeated prototype connections.
- Reduce unnecessary duplicate frames.
- Improve design-system consistency.
- Reuse interaction behavior.
- Prototype component states efficiently.
- Make developer handoff clearer.
- Make prototypes easier to maintain.
- Improve testing of UI interactions.
- Support scalable design workflows.
4. Interactive Components at a Glance
| Concept | Purpose | Example |
| Component | Reusable design element | Button |
| Variant | Different version of a component | Button / Hover |
| Component Set | Groups related variants | Button states |
| Trigger | Starts an interaction | On click |
| Action | Defines what happens | Change to |
| Interactive Component | Reusable component with built-in interactions | Interactive toggle |
5. How Interactive Components Work
Component Set
│
├── Default Variant
│
├── Hover Variant
│
├── Pressed Variant
│
└── Disabled Variant
│
↓
Prototype Connections
│
↓
User Interaction
│
↓
Figma Changes Variant
6. Relationship Between Variants and Interactive Components
Interactive Components are an extension of Figma Variants. You first create a component set containing variants and then create prototype interactions between those variants.
Variants
↓
Component Set
↓
Prototype Interaction
↓
Interactive Component
Variants define the different states or versions of a component, while Interactive Components define how the component can move from one state to another during prototyping.
7. Requirements for Interactive Components
Interactive Components require a component set with variants. The variants used for a Change to interaction must belong to the same component set.
- Create a component.
- Create related variants.
- Combine them into a component set.
- Open the Prototype tab.
- Create interactions between variants.
- Configure triggers and actions.
- Test the component in prototype presentation.
8. Component Set for Interactive Components
A component set is the foundation for many Interactive Component workflows.
Button Component Set
├── Default
├── Hover
├── Pressed
└── Disabled
Each variant represents a different state of the same component.
9. Common Interactive Component Examples
- Buttons.
- Toggle switches.
- Checkboxes.
- Radio buttons.
- Tabs.
- Navigation items.
- Dropdown controls.
- Accordions.
- Like buttons.
- Favorite buttons.
- Form fields.
- Sliders.
- Expandable components.
- Loading indicators.
10. What is a Trigger?
A trigger is the event that starts an interaction. It describes what the user needs to do before the prototype responds.
Common triggers include:
- On click.
- On tap.
- While hovering.
- Mouse enter.
- Mouse leave.
- While pressing.
- Drag.
- Keyboard interactions where supported.
In Figma prototyping, an interaction consists of a trigger and an action that determines what happens next.
11. What is an Action?
An action defines what happens after the trigger occurs.
For Interactive Components, the most important action is Change to.
Trigger:
On click
Action:
Change to
Destination:
Checked Variant
12. Change to Action
Change to is the prototype action used to switch between variants in the same component set. For example, a checkbox can change from an unchecked variant to a checked variant when clicked.
Unchecked
↓
On click
↓
Change to
↓
Checked
13. Creating an Interactive Component
- Create the base component.
- Create the required variants.
- Combine the components as variants.
- Select the component set.
- Open the Prototype tab.
- Select the source variant.
- Drag the prototype connection to the destination variant.
- Set the action to Change to.
- Select the appropriate trigger.
- Configure the animation.
- Repeat for other states.
- Test the component in Presentation view.
14. Step-by-Step: Creating a Button Interaction
Suppose you want a button to have Default, Hover, and Pressed states.
- Create the Default button component.
- Add a Hover variant.
- Add a Pressed variant.
- Rename the property to State.
- Set the values to Default, Hover, and Pressed.
- Open the Prototype tab.
- Connect Default to Hover.
- Set the trigger to While hovering.
- Set the action to Change to.
- Connect Hover to Pressed if required.
- Set the appropriate trigger and animation.
- Preview the prototype.
15. Button Interactive Component Structure
Button
State = Default
│
│ While hovering
↓
State = Hover
│
│ While pressing / click
↓
State = Pressed
16. Button with Disabled State
A disabled state normally represents a state that should not respond to normal user interaction.
Button
├── Default
├── Hover
├── Pressed
└── Disabled
Do not create normal interaction transitions from Disabled to active states unless that behavior is specifically required by the prototype.
17. Interactive Checkbox
A checkbox is one of the simplest examples of an Interactive Component.
Checkbox
Unchecked
↓ On click
Checked
↓ On click
Unchecked
The same component can be duplicated across many screens while retaining its interaction behavior.
18. Interactive Toggle
Toggle
Off
↓
On click
↓
On
On
↓
On click
↓
Off
This allows designers to simulate a real toggle without creating separate prototype connections for every individual toggle instance.
19. Interactive Tabs
Tabs can use variants to represent active and inactive states.
Tab
State = Active
State = Inactive
Prototype behavior can then change the selected tab state when the user interacts with a tab.
20. Interactive Navigation Items
Navigation Item
Default
Hover
Active
Disabled
Hover and active states can be represented by variants and connected with appropriate triggers.
21. Interactive Accordion
An accordion can use collapsed and expanded variants.
Accordion
Collapsed
↓ On click
Expanded
↓ On click
Collapsed
This is useful for FAQ, settings, help, and documentation interfaces.
22. Interactive Dropdown
A dropdown can use variants such as Closed and Open.
Dropdown
Closed
↓
On click
↓
Open
Additional variants can represent selected or disabled states where required.
23. Interactive Like Button
Like Button
Not Liked
↓ On click
Liked
↓ On click
Not Liked
This can be combined with icons, text, color changes, and animation to create a realistic prototype.
24. Interactive Favorite Button
Favorite
Inactive
↓
On click
↓
Active
The interaction can change the icon, color, and other visual properties through the destination variant.
25. Interactive Input Field
Input fields can use variants to represent different visual states.
Input
Default
Focus
Filled
Error
Success
Disabled
Prototype interactions can demonstrate how the field changes as the user interacts with it.
26. Interactive Radio Button
Radio
Unselected
↓ On click
Selected
For complex forms, Interactive Components can reduce the amount of repetitive prototype wiring required.
27. Interactive Switch with Disabled State
Switch
Off
On
Off Disabled
On Disabled
Use separate properties when that creates a clearer and more reusable component architecture.
28. Interactive Component Animation
Interactive Components can use animation settings to make state changes feel more realistic.
Common animation approaches include:
- Instant.
- Smart Animate.
- Ease in.
- Ease out.
- Ease in and out.
- Spring.
The exact animation options and interface may evolve as Figma updates its prototyping features.
29. Smart Animate with Interactive Components
Smart Animate can create smooth visual transitions between compatible layers in different variants.
Default
↓
Smart Animate
↓
Hover
↓
Smart Animate
↓
Pressed
Keep layer names and structures consistent between variants when you want predictable Smart Animate behavior.
30. Example: Animated Toggle
Toggle Off
●────────
↓ Smart Animate
Toggle On
────────●
The moving switch indicator and background can animate between the two variants.
31. While Hovering Trigger
While hovering is useful for desktop interactions such as buttons, navigation items, cards, and menus.
Default
↓
While hovering
↓
Hover
32. On Click Trigger
On click is useful for controls that change state after a user clicks them.
Off
↓
On click
↓
On
33. While Pressing Trigger
While pressing can be used to demonstrate a temporary pressed state while the user holds the pointer interaction.
Default
↓
While pressing
↓
Pressed
34. Drag-Based Interactive Components
Some components can use drag interactions when the design requires movement-based behavior.
Examples include:
- Sliders.
- Carousels.
- Swipe controls.
- Drag handles.
- Interactive drawers.
35. Interactive Component with Multiple States
Button
Default
↓ While hovering
Hover
↓ While pressing
Pressed
↓ On release
Default
Multiple interactions can be connected between variants to simulate realistic component behavior.
36. Interactive Components vs Normal Prototyping
| Normal Prototyping | Interactive Components |
| Connections often created on individual screens | Interactions can be defined at component level |
| Can require many duplicate connections | Instances inherit component interactions |
| More repetitive for repeated controls | Reusable interaction behavior |
| Harder to maintain at scale | Easier to maintain component behavior |
| More frame duplication may be required | Can reduce unnecessary frame duplication |
Interactive Components are particularly useful when the same control appears repeatedly because the interaction behavior can be configured once and reused across instances.
37. Interactive Components vs Component Variants
| Component Variants | Interactive Components |
| Create different versions of a component | Add interactions between those versions |
| Define states and styles | Define behavior between states |
| Example: Default, Hover, Disabled | Example: Default → Hover on hover |
| Static component configuration | Interactive prototype behavior |
38. Interactive Components vs Component Properties
Component properties control how an instance can be customized, while Interactive Components define how the component can respond to prototype interactions.
Component Property
↓
Controls Configuration
Interactive Component
↓
Controls Prototype Behavior
39. Interactive Components and Component Properties Together
Interactive Components can be combined with component properties to create flexible and realistic components.
Button
Variant:
State = Default
State = Hover
State = Pressed
Text Property:
Label = Continue
Boolean Property:
Show Icon = True
Instance Swap:
Icon = Arrow Right
40. Interactive Components and Nested Components
Interactive Components can contain nested components. A Change to interaction can also be used with supported nested component structures to change a parent component variant.
Parent Component
↓
Nested Interactive Component
↓
User Interaction
↓
Change to Parent Variant
41. Example: Expandable Component
Expandable
Collapsed
├── Icon: Plus
└── Content: Hidden
Expanded
├── Icon: Minus
└── Content: Visible
The nested icon or content can participate in the component structure while the parent switches between its variants.
42. Interactive Components with Variables
Interactive Components can work with variables to create more advanced prototype behavior. When supported in the prototype setup, a component interaction and variable-driven behavior can work together so that other elements using the same variable can respond to changes.
User Interaction
↓
Interactive Component
↓
Variant Changes
↓
Variable Updates
↓
Other Bound Elements Update
43. Example: Product Selection
Product Card
Selected = False
Selected = True
Interaction:
Click Product
↓
Change to Selected
Variable:
Selected Product Count
↓
Other UI updates
44. Interactive Components for Checklists
Interactive checkboxes are especially useful in forms, onboarding flows, task lists, settings screens, and e-commerce filters.
Unchecked
↕
Checked
Once the interactive checkbox component is created, multiple instances can be placed on a screen without manually recreating the same state interaction for every checkbox.
45. Why Interactive Components Reduce Prototype Complexity
Imagine a screen containing five independent checkboxes. If every checkbox can be checked or unchecked, there are many possible combinations. Building all those states with traditional frame-based connections can become extremely complex.
Interactive Components allow the checkbox behavior to be defined once and then reused across all checkbox instances. This significantly reduces repetitive prototype connections.
46. Example: Five Checkbox Problem
Traditional Approach
Screen
↓
Duplicate Frames
↓
Different Checkbox Combinations
↓
Many Prototype Connections
Interactive Component Approach
Checkbox Component Set
↓
Unchecked ↔ Checked
↓
Create Instances
↓
Interactions Reused
47. Interactive Components in Design Systems
Interactive Components are valuable in design systems because they allow interaction behavior to be standardized at the component level.
- Consistent interaction behavior.
- Consistent animation.
- Reusable states.
- Reusable prototype behavior.
- Better documentation.
- Better developer handoff.
- Less repetitive prototyping work.
48. Interactive Components and Developer Handoff
Interactive prototypes can show developers how a component is expected to behave instead of only showing static screenshots.
For example:
Button
Default
↓
Hover
↓
Pressed
↓
Loading
↓
Success
This provides additional context about state transitions, animation, and interaction behavior.
49. Interactive Components and Design Consistency
When interaction behavior is built into a component, designers do not need to manually recreate the same behavior every time the component is used.
This helps maintain consistent hover, pressed, selected, expanded, and checked states throughout a product.
50. Interactive Component Naming
Use clear names for interactive component sets and their properties.
Good example:
Button
Property: State
Values:
Default
Hover
Pressed
Disabled
Poor example:
Component 1
Variant 1
Variant 2
Variant 3
51. Interactive Component Property Naming
- State
- Size
- Type
- Selected
- Expanded
- Theme
- Loading
- Status
Choose names that clearly communicate the component's behavior and design-system meaning.
52. Interactive Component State Model
A state model describes the possible states and transitions of a component.
State Model
Default
↓
Hover
↓
Pressed
↓
Default
Default
↓
Disabled
Default
↓
Loading
↓
Success
53. Planning an Interactive Component
- Identify the component.
- List its states.
- Identify user triggers.
- Define the destination state for each trigger.
- Choose animations.
- Build the variants.
- Create the interactions.
- Test the behavior.
- Document the interaction model.
54. Interactive Component State Table
| Current State | Trigger | Destination |
| Default | While hovering | Hover |
| Hover | While pressing | Pressed |
| Pressed | Release | Default |
| Default | On click | Loading |
| Loading | After completion | Success |
55. Example: Save Button
A Save button can demonstrate several component states.
Save Button
Default
↓ On click
Saving
↓
Saved
Saved
↓ On click
Saving
This can create a more realistic prototype for applications where an action has a loading and success state.
56. Example: Favorite Button
Favorite
Inactive
↓ On click
Active
↓ On click
Inactive
Use different icon and visual treatments for the two variants.
57. Example: Accordion
FAQ Item
Collapsed
↓ On click
Expanded
↓ On click
Collapsed
The expanded state can reveal additional content while the collapsed state hides it.
58. Example: Dropdown
Dropdown
Closed
↓ On click
Open
↓ Select item
Selected
For complex dropdown prototypes, additional frames or overlays may be required depending on the desired behavior.
59. Example: Interactive Card
Card
Default
↓ Hover
Hover
↓ Click
Selected
This can be useful for selectable products, plans, dashboard cards, and content collections.
60. Interactive Components and Prototyping
Interactive Components are specifically designed to simplify reusable prototype behavior. Figma prototypes can be used to preview interactions, share flows, gather feedback, test user behavior, and demonstrate designs to stakeholders.
61. Interactive Components and Prototype Frames
Interactive Components do not eliminate the need for regular prototype frames. Instead, they reduce the need to create separate frames for every component state.
Screen Frame
│
├── Interactive Button
├── Interactive Checkbox
├── Interactive Toggle
└── Interactive Dropdown
62. Adding Regular Prototype Interactions
You can add regular prototype interactions on top of Interactive Component behavior. This allows a component to both change its internal state and perform a larger prototype action such as navigating to another frame.
Button
↓
Change to Hover
Button
↓
On click
↓
Navigate to Next Screen
63. Same Trigger Behavior
When a regular prototype interaction and a variant interaction use the same trigger, Figma follows the prototype interaction and ignores the variant interaction for that trigger.
Therefore, carefully review trigger conflicts when combining component-level interactions with screen-level prototype interactions.
64. Different Trigger Behavior
When a regular interaction uses a different trigger from the variant interaction, Figma can play both behaviors where applicable.
Variant Interaction:
While hovering → Change to Hover
Regular Interaction:
On click → Navigate to Next Screen
This allows a component to show a hover state and then navigate when clicked.
65. Viewing Interactive Component Interactions
When working with Interactive Components, the Prototype panel provides areas for regular Interactions and variant interactions.
- Interactions section: used for prototype interactions.
- Variant interactions section: used to view variant interaction details.
66. Editing Interactive Component Interactions
When you need to change the interaction behavior of the main component, edit the source component in the source file rather than trying to permanently change the main component through an instance.
- Select the instance.
- Use the option to go to the main component.
- Open the Prototype tab.
- Update the variant interaction.
- Test the component again.
67. Overriding Interactive Component Behavior
Prototype instances can have interaction behavior adjusted in supported workflows. However, changes to the source component's main interaction setup should be made from the source component so that the component system remains maintainable.
68. State Memorization
Interactive Components can maintain state across prototype navigation. Figma can remember the last variant state of an interactive component.
Frame 1
Checkbox = Checked
↓
Navigate
↓
Frame 2
↓
Return
↓
Checkbox remains Checked
This behavior is called state memorization.
69. State Sharing
Figma can also share states between matching interactive components across frames after the component has initially been interacted with.
Frame 1
Checkbox = Checked
↓
Navigate
↓
Frame 2
Matching Checkbox
↓
Checked
State sharing can be useful when the same interactive component appears in multiple parts of a prototype.
70. Reset Component State
If you do not want a component to maintain its state across interactions, you can use the Reset component state option in the interaction details where supported.
Interactive Component
↓
State changes
↓
Navigate
↓
Reset component state
↓
Component returns to default state
71. Interactive Components and Custom Fonts
When interactive components use custom fonts, prototype viewers may not have those fonts installed. Font availability can affect how text renders in shared prototypes, so using appropriate fonts and checking the prototype in the intended viewing environment can reduce unexpected differences.
72. Interactive Components and Accessibility
Interactive prototypes should communicate important states clearly.
- Focus states should be visible.
- Disabled states should be distinguishable.
- Error states should not rely only on color.
- Selected states should have clear visual indicators.
- Interactive controls should have sufficient visual contrast.
- Important state changes should be understandable.
73. Interactive Components and UX Design
Interactive Components help designers test whether component behavior feels natural before development begins.
For example, designers can test:
- Does the hover state appear correctly?
- Does the pressed state feel responsive?
- Does the selected state remain visible?
- Does the accordion expand correctly?
- Does the toggle communicate its state?
- Does the loading state make sense?
74. Interactive Components and User Testing
Interactive Components can make usability testing more realistic because participants can interact with controls instead of only viewing static screens.
Static Design
↓
Looks Correct
Interactive Prototype
↓
Feels Correct
↓
Test User Behavior
75. Interactive Components and Design Systems
Interactive Components can become part of a reusable design-system workflow where component appearance and behavior are both standardized.
Design System
│
├── Button
│ ├── Visual Variants
│ └── Interactive States
│
├── Checkbox
│ ├── Visual Variants
│ └── Interactive States
│
└── Toggle
├── Visual Variants
└── Interactive States
76. Interactive Component Best Practices
- Start with a clear component-state model.
- Use variants for meaningful states.
- Use descriptive property names.
- Use Change to for variant-to-variant interactions.
- Keep interaction logic simple.
- Use Smart Animate where appropriate.
- Test every important state.
- Test component instances in real screens.
- Document unusual interaction behavior.
- Avoid unnecessary variants.
- Avoid conflicting triggers.
- Keep component structure consistent.
77. Common Mistake: Missing Variant
An interaction cannot switch to a state that does not exist as a destination variant. Make sure all required states have been created before configuring the interaction.
Default
↓
Change to
↓
Hover
Requirement:
Hover variant must exist.
78. Common Mistake: Using Separate Frames for Every State
Interactive Components are designed to reduce unnecessary frame duplication for repeated component states.
Instead of:
Frame 1 → Frame 2 → Frame 3 → Frame 4
Use:
Component Set
Default ↔ Hover ↔ Pressed
This keeps component behavior reusable.
79. Common Mistake: Too Many Variants
Creating a separate variant for every tiny content change can make a component set difficult to manage.
Use component properties when appropriate:
Variant:
State = Default
Text Property:
Label = Save
Boolean:
Show Icon = True
80. Common Mistake: Conflicting Triggers
When regular prototype interactions and variant interactions use the same trigger, unexpected behavior can occur because Figma gives priority to the prototype interaction in that situation.
Always review interaction triggers carefully.
81. Common Mistake: Inconsistent Layer Structure
When using Smart Animate, keep corresponding layers between variants consistently named and structured.
Variant A:
Icon
Label
Background
Variant B:
Icon
Label
Background
Consistent structure makes animations more predictable.
82. Common Mistake: Ignoring State Persistence
When prototypes contain multiple frames, understand whether state memorization or state sharing should be used. Otherwise, a component may remain selected or checked when you expected it to reset.
83. Common Mistake: Ignoring Mobile Behavior
Hover interactions are primarily useful for pointer-based experiences. For mobile prototypes, design interactions around taps, presses, swipes, and other appropriate touch behaviors.
84. Practical Project: Interactive Button
Create a button with four states.
Button
Default
Hover
Pressed
Disabled
Interactions:
Default
↓ While hovering
Hover
Hover
↓ While pressing
Pressed
Pressed
↓ Release
Default
85. Practical Project: Interactive Toggle
Create a toggle with On and Off variants.
Toggle
Off
↓ On click
On
On
↓ On click
Off
Add Smart Animate to make the switch movement feel realistic.
86. Practical Project: Interactive Checkbox
Create a checkbox with Checked and Unchecked variants.
Checkbox
Unchecked
↕
Checked
Connect both states using On click → Change to.
87. Practical Project: Interactive Accordion
Create an accordion with Collapsed and Expanded variants.
Accordion
Collapsed
↓ On click
Expanded
↓ On click
Collapsed
Use Smart Animate for the visual transition where appropriate.
88. Practical Project: Interactive Favorite Button
Create a favorite button with two variants.
Favorite
Inactive
↓ On click
Active
↓ On click
Inactive
Change the icon and visual treatment between variants.
89. Practical Project: Interactive Navigation Item
Create a navigation item with Default, Hover, Active, and Disabled states.
Navigation
Default
↓ Hover
Hover
Hover
↓ Click
Active
90. Practical Project: Interactive Input
Create an input field component with several states.
Input
Default
Focus
Filled
Error
Success
Disabled
Use interactions to demonstrate how the input should behave in a realistic prototype.
91. Professional Interactive Component Workflow
Identify Component
↓
List Required States
↓
Create Base Component
↓
Create Variants
↓
Define Variant Properties
↓
Open Prototype Tab
↓
Define Triggers
↓
Use Change to
↓
Select Destination Variant
↓
Configure Animation
↓
Test Individual States
↓
Create Component Instances
↓
Test in Real Screens
↓
Check State Persistence
↓
Document Behavior
↓
Use in Product Prototype
92. Interactive Component Testing Checklist
- Does every required state exist?
- Does every trigger work?
- Does Change to point to the correct variant?
- Are animations smooth?
- Are hover states correct?
- Are pressed states correct?
- Are selected states correct?
- Are disabled states correct?
- Does the component work when duplicated?
- Does the component work inside real screens?
- Does state persistence behave as expected?
- Are there conflicting prototype interactions?
- Are component properties still working?
93. Interactive Component Interview Questions
1. What are Interactive Components in Figma?
Interactive Components are reusable components with prototype interactions between variants.
2. What is required to create an Interactive Component?
You generally need a component set containing variants and prototype interactions between those variants.
3. What is the Change to action?
Change to switches an interactive component from one variant to another variant in the same component set.
4. What is the difference between a variant and an Interactive Component?
A variant represents a component state or variation, while an Interactive Component connects those variants with prototype behavior.
5. Can Interactive Components be reused?
Yes. Instances inherit the configured component-level variant interactions.
6. Can Interactive Components use animations?
Yes. Prototype animation settings can be configured for interactions between variants.
7. Can Interactive Components work with variables?
Yes. Figma supports using variables with Interactive Components for more advanced prototype behavior.
8. What is state memorization?
State memorization allows Figma to remember the last state of an interactive component when navigating through prototype frames.
9. What happens when regular and variant interactions use the same trigger?
Figma uses the regular prototype interaction and ignores the variant interaction for that same trigger.
10. Why are Interactive Components useful?
They reduce repetitive prototype work, improve consistency, and allow reusable component behavior to be defined once and reused across many instances.
94. Quick Revision
| Term | Meaning |
| Interactive Component | Reusable component with prototype behavior |
| Variant | Specific version or state of a component |
| Component Set | Collection of related variants |
| Trigger | User action that starts an interaction |
| Action | Result of an interaction |
| Change to | Switches between component variants |
| Smart Animate | Animates compatible layer changes between states |
| State Memorization | Remembers an interactive component's state |
| State Sharing | Shares matching component state across frames |
| Variable | Reusable value that can work with interactive behavior |
95. Key Takeaways
- Interactive Components add reusable prototype behavior to component variants.
- They are built using variants from a component set.
- Change to is the key action for switching between variants.
- Triggers determine when the interaction happens.
- Interactive Components are useful for buttons, toggles, checkboxes, tabs, inputs, accordions, and navigation.
- Instances automatically inherit configured variant interactions.
- Regular prototype interactions can be combined with variant interactions.
- Trigger conflicts should be handled carefully.
- State memorization can preserve component state across frames.
- State sharing can synchronize matching interactive components across frames.
- Variables can extend the behavior of Interactive Components.
- Good component architecture reduces prototype complexity.
- Testing is essential before using Interactive Components in production prototypes.
96. Complete Interactive Component Workflow
Create Component
↓
Create Component Variants
↓
Create Component Set
↓
Define State Properties
↓
Define Variant Values
↓
Open Prototype Tab
↓
Choose Trigger
↓
Choose Change to
↓
Select Destination Variant
↓
Configure Animation
↓
Test Interaction
↓
Create Component Instances
↓
Use in Product Screens
↓
Add Regular Prototype Navigation
↓
Test State Persistence
↓
Document Component Behavior
97. Conclusion
Interactive Components are a powerful Figma feature for creating reusable and realistic prototype behavior. Instead of manually connecting every repeated button, checkbox, toggle, tab, or input on every screen, designers can define interactions between variants at the component level and reuse that behavior across multiple instances.
The most effective Interactive Component workflow starts with a well-structured component set, clearly named variant properties, meaningful states, appropriate triggers, Change to actions, and carefully selected animations. Combining Interactive Components with component properties, Auto Layout, variables, and other Figma features allows designers to create flexible and realistic prototypes while keeping the design system organized.
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