OpenNative: A Native App Browser Concept

Tagline

One platform to browse and use native mobile apps on demand.

1. Introduction

Mobile users today often need to download a separate application for every service they want to use. A user may install one app for food delivery, another for shopping, another for healthcare, another for events, another for travel, and another for local services.

This creates friction.

Each app takes time to download, consumes storage, asks for permissions, needs updates, and adds clutter to the phone. Many apps are used only once or occasionally, but they still remain installed on the device.

This product introduces a new model: a browser for native mobile applications.

Instead of downloading every app separately, users install one platform application from the App Store or Play Store. Inside that platform, they can search, browse, open, use, switch between, and manage multiple native mobile app experiences.

It works like a browser, but instead of browsing websites, users browse and use native mobile application experiences.

---

2. Core Concept

The core concept is simple:

One installed platform app that behaves like a browser for many native mobile app experiences.

In the web world, users do not download a separate application for every website. They open a browser, search for a website, and use it instantly.

This product brings a similar idea to native mobile applications.

Traditional mobile model:

App Store → Search app → Download app → Install app → Open app → Use service

Native app browser model:

Open native app browser → Search service → Open native app experience → Use instantly

This changes mobile access from an install-first model to a use-first model.

---

3. Product Definition

This product is a native mobile application browser and rendering platform.

It allows users to discover and use lightweight native app experiences inside one installed platform app.

Developers publish app experiences to the platform using predefined native components, schemas, APIs, and actions. The platform then renders those experiences inside the installed mobile application using native iOS and Android components.

In simple terms:

Developer publishes app experience
        ↓
Platform stores app configuration
        ↓
User searches inside platform app
        ↓
Platform loads required app configuration
        ↓
Native renderer displays the app experience
        ↓
User completes the task

The user does not download the full app. The platform downloads only what is needed to render and operate that specific experience.

---

4. Product Vision

The vision is to make native mobile applications as easy to access as websites.

A user should not need to install a separate app just to complete a small task. They should be able to search, open, and use a native app experience instantly.

The long-term vision is:

A mobile world where native application experiences are searchable, lightweight, instant, multitask-friendly, and accessible through one trusted browser-like platform.

This can shift mobile behavior from downloading apps to browsing and using native app experiences on demand.

---

5. Why This Product Is Needed

The current mobile app model creates several problems.

Too many applications

Users often install apps for occasional tasks such as booking one appointment, attending one event, ordering from one restaurant, tracking one delivery, or checking one loyalty card.

Storage limitations

Many apps are large and consume valuable device storage, especially on budget phones or older devices.

Slow downloads

Users with slower internet may avoid downloading new apps because installation takes time.

Update fatigue

Installed apps require regular updates, even when the user rarely opens them.

Discovery friction

Finding the right app through traditional app stores can be slower than searching inside one unified native app browser.

Developer cost

Developers must build, test, publish, and maintain full native apps for iOS and Android, even when the actual use case is simple.

A browser-like platform for native mobile app experiences can reduce these problems.

---

6. How It Is Similar to a Web Browser

A web browser allows users to:

• Search websites
• Open pages instantly
• Use multiple tabs
• Switch between services
• Bookmark pages
• Fill forms
• Make payments
• Manage sessions
• Clear browsing data

A native app browser would allow users to:

• Search native app experiences
• Open lightweight app experiences instantly
• Use multiple app tabs
• Switch between active native app experiences
• Save favorite app experiences
• Complete forms, bookings, orders, and payments
• Manage permissions
• Clear cached app data

The difference is that instead of rendering websites, the platform renders structured native mobile experiences.

---

7. How It Is Different from a Web Browser

A normal web browser renders websites using HTML, CSS, and JavaScript.

This product renders native mobile app experiences using:

• Native UI components
• Remote app configuration
• Platform-approved schemas
• Safe action handlers
• Controlled API connections
• Native navigation
• Native forms
• Native gestures
• Native accessibility
• Native device performance

The platform does not simply open websites inside a WebView. It renders app experiences using native mobile components.

That makes the experience smoother, more consistent, more secure, and more app-like.

---

8. How It Works

The product has two major sides:

1. User-facing native app browser
2. Developer publishing platform

The user-facing app works like a browser. It lets users search, discover, open, use, save, manage, and switch between native app experiences.

The developer platform lets developers publish app experiences using supported components and APIs.

The high-level flow is:

User opens native app browser
        ↓
User searches or browses
        ↓
User selects an app experience
        ↓
Platform fetches app schema and assets
        ↓
Native renderer builds the screen
        ↓
User interacts with the app experience
        ↓
Actions are handled through platform-approved flows

---

9. User Experience

A typical user journey may look like this:

Step 1: Open the native app browser

The user opens the installed platform application.

Step 2: Search for a service

The user searches for what they need.

Examples:

• “Book a salon”
• “Order food”
• “Find events near me”
• “Track delivery”
• “Pay bill”
• “Buy movie tickets”
• “Book doctor appointment”

Step 3: View results

The platform shows relevant native app experiences.

Each result may include:

• App title
• Category
• Description
• Rating
• Verified badge
• Required permissions
• Estimated load size
• Last updated date

Step 4: Open instantly

The user taps a result. The platform loads only the required configuration, assets, and data.

Step 5: Use the app experience

The user interacts with native screens, forms, buttons, lists, search bars, maps, checkout flows, or booking flows.

Step 6: Save, switch, or exit

The user can favorite the app experience, open another experience in a new tab, switch between active tabs, return later, or clear cached data.

---

10. Multi-Tab Support

One powerful feature of this concept is multi-tab support, similar to a web browser.

Users should be able to open multiple native app experiences at the same time and switch between them easily.

For example, a user could:

• Open a food ordering experience in one tab
• Open a payment or wallet experience in another tab
• Open a delivery tracking experience in a third tab
• Open a coupon or rewards experience in another tab

This makes the platform feel more like a true browser for native mobile applications.

Multi-tab user flow

Search service
     ↓
Open app experience in Tab 1
     ↓
Open another app experience in Tab 2
     ↓
Switch between active tabs
     ↓
Continue tasks without restarting each app

Benefits of multi-tab support

Multi-tab support gives users:

• Better multitasking
• Faster switching between services
• Less repeated loading
• Better session continuity
• A familiar browser-like experience
• Easier comparison between services
• Better support for task-based workflows

For example, a user could compare two travel booking experiences, switch between two shopping carts, or keep an order tracking experience open while browsing another service.

---

11. Background Processing in Multiple Tabs

To make multi-tab support useful, the platform should also support controlled background processing.

This means some app experiences can continue selected tasks while the user is viewing another tab.

For example:

• A food order tab can continue tracking order status.
• A ride booking tab can continue checking driver arrival.
• A file upload tab can continue uploading in the background.
• A payment confirmation tab can continue waiting for status.
• A chat support tab can continue receiving updates.
• A delivery tracking tab can continue refreshing status.
• A form tab can autosave draft progress.

However, background processing must be carefully controlled to protect battery, memory, privacy, and performance.

Background processing should support

• Order status updates
• Booking confirmation updates
• Payment status checks
• Upload progress
• Download progress
• Chat notifications
• Timer-based updates
• Draft autosave
• Real-time tracking
• Push notification handling

Background processing should not allow

• Unrestricted background execution
• Silent data collection
• Excessive location tracking
• Unapproved microphone or camera use
• Hidden analytics beyond policy
• Battery-draining background loops
• Arbitrary remote code execution

The platform should provide a strict background task manager.

---

12. Multi-Tab and Background Task Manager

The native app browser should include a dedicated tab and background task manager.

This system manages:

• Active tabs
• Suspended tabs
• Recently closed tabs
• Background tasks
• Memory usage
• Network usage
• Battery impact
• Permission scope
• Task expiration
• User notifications

A simplified architecture:

Native App Browser
        ↓
Tab Manager
        ↓
Session Manager
        ↓
Background Task Manager
        ↓
Permission Manager
        ↓
Native Rendering Engine

Each tab should have its own isolated session state.

This helps prevent one app experience from interfering with another.

---

13. Tab States

Each native app tab can have different states.

Tab state	Meaning
Active	User is currently viewing and interacting with the tab
Background	Tab is not visible but allowed to continue limited tasks
Suspended	Tab is paused to save memory and battery
Cached	Tab state is saved and can be restored later
Closed	Tab is removed by the user or system

The platform should automatically suspend inactive tabs when memory is low.

---

14. Background Processing Controls

The platform should give users clear control over background activity.

Users should be able to see:

• Which app experiences are running in the background
• What each background task is doing
• Which permissions are being used
• How much storage or cache is used
• Whether location is active
• Whether notifications are enabled
• Option to stop a background task
• Option to close all tabs
• Option to clear tab data

This makes background processing transparent and trustworthy.

---

15. Developer Rules for Background Processing

Developers should not get unlimited background access.

They should declare background needs in the app experience configuration.

Example:

{
  "backgroundTasks": [
    {
      "type": "order_status_tracking",
      "maxDurationMinutes": 60,
      "requiresNotification": true
    }
  ]
}

The platform should approve only supported background task types.

Allowed examples:

• Tracking order status
• Uploading a file
• Waiting for payment confirmation
• Receiving chat messages
• Autosaving form data
• Updating booking status

High-risk tasks such as continuous location tracking should require stronger permission and review.

---

16. Developer Experience

Developers do not need to publish a full native app to every app store for every service.

Instead, they publish a native app experience to the platform.

The developer workflow may include:

1. Create developer account.
2. Register app experience.
3. Add title, description, category, and icon.
4. Build screens using supported components.
5. Connect APIs and data sources.
6. Define navigation and actions.
7. Configure permissions.
8. Configure optional background tasks.
9. Preview on iOS and Android.
10. Run automated checks.
11. Publish to the platform.
12. Monitor usage, errors, performance, and background activity.

This makes mobile publishing faster and more accessible.

---

17. Technical Architecture

A simplified architecture looks like this:

User
 ↓
Native App Browser
 ↓
Search and Discovery Layer
 ↓
App Experience Registry
 ↓
Remote Configuration Service
 ↓
Native Rendering Engine
 ↓
Component Registry
 ↓
Tab Manager
 ↓
Background Task Manager
 ↓
Action and API Gateway
 ↓
Developer Backend Services

The platform includes:

• Installed mobile shell
• Search system
• App registry
• Remote configuration service
• Component registry
• Native rendering engine
• Multi-tab manager
• Background task manager
• API gateway
• Permission manager
• Cache manager
• Policy validation engine
• Analytics and monitoring system
• Developer portal

---

18. Native Rendering Engine

The native rendering engine is the heart of the product.

It receives remote app definitions and converts them into native mobile UI.

Example flow:

Remote schema
     ↓
Validation
     ↓
Component mapping
     ↓
Native screen rendering
     ↓
User interaction handling
     ↓
Analytics and error reporting

The renderer should support:

• Text
• Images
• Buttons
• Cards
• Lists
• Grids
• Forms
• Search bars
• Tabs
• Modals
• Bottom sheets
• Navigation
• Date pickers
• Maps
• Product cards
• Appointment slots
• Payment summaries
• Order tracking
• Chat interfaces

On iOS, the renderer may use SwiftUI or UIKit. On Android, it may use Jetpack Compose or native Android Views.

---

19. Component Registry

The component registry defines the building blocks available to developers.

Each component should have:

• Component name
• Required properties
• Optional properties
• Allowed actions
• Supported versions
• Accessibility requirements
• Performance limits
• Security rules

Example component schema:

{
  "type": "button",
  "props": {
    "label": "Book Now",
    "style": "primary"
  },
  "action": {
    "type": "navigate",
    "target": "booking_screen"
  }
}

This approach is safer than allowing developers to run arbitrary remote code.

---

20. Remote App Experience Configuration

Each app experience is stored as structured configuration.

Example:

{
  "experienceId": "salon_booking_001",
  "title": "City Salon Booking",
  "category": "Local Services",
  "version": "1.0.0",
  "minimumPlatformVersion": "2.0.0",
  "screens": [
    {
      "id": "home",
      "title": "Book a Service",
      "components": [
        {
          "type": "text",
          "props": {
            "value": "Choose your salon service"
          }
        },
        {
          "type": "list",
          "props": {
            "dataSource": "services.available"
          }
        },
        {
          "type": "button",
          "props": {
            "label": "Continue"
          },
          "action": {
            "type": "navigate",
            "target": "select_time"
          }
        }
      ]
    }
  ],
  "backgroundTasks": [
    {
      "type": "booking_status_check",
      "maxDurationMinutes": 30,
      "requiresNotification": false
    }
  ]
}

When the user opens this experience, the platform fetches the configuration and renders it natively.

---

21. Why It Should Not Be Just a WebView

A WebView-only model would be easier to build, but it would weaken the product.

A WebView approach may create:

• Slower performance
• Browser-like feeling
• Inconsistent UI
• Weaker accessibility
• Harder governance
• Higher security risk
• Poor offline support
• More memory usage

A native rendering approach gives the platform stronger control over quality, performance, safety, and user experience.

Area	WebView model	Native rendering model
Rendering	Web pages	Native components
Feel	Browser-like	App-like
Speed	Depends on web app	Optimized native rendering
Security	Harder to control	Schema and sandbox controlled
Design consistency	Varies by developer	Platform-governed
Offline support	Limited	Better caching possible
Accessibility	Developer-dependent	Built into native components
Multi-tab support	Browser-style tabs	Native app experience tabs
Background processing	Harder to standardize	Controlled by platform task manager

---

22. Security and Trust

A browser for native mobile applications must be built around trust.

The platform should not allow developers to execute arbitrary code directly on the device. Instead, developers should publish declarative app schemas using approved components.

Security controls should include:

• Developer verification
• App experience signing
• Payload integrity checks
• Secure API gateway
• Domain allowlists
• Runtime sandboxing
• Data access controls
• Permission mediation
• Rate limiting
• Fraud detection
• Abuse reporting
• Content moderation
• Kill switches
• Rollback capability

The platform should be able to instantly disable unsafe experiences.

---

23. Privacy Model

Users should clearly understand what each app experience can access.

The platform should provide a privacy dashboard showing:

• Recently opened app experiences
• Open tabs
• Background activity
• Permissions granted
• Data shared
• Notification access
• Location access
• Payment access
• Login status
• Cache size
• Option to revoke access
• Option to clear data
• Option to report misuse

The platform should not share sensitive user data with an app experience without user consent.

Privacy should be treated as a core feature.

---

24. Governance and Publishing Checks

The product should support fast publishing, but not unsafe publishing.

A good model is:

Minimal manual review, strong automated governance.

Automated checks can validate:

• Schema correctness
• Component compatibility
• Broken links
• Unsafe APIs
• Restricted content
• Permission declarations
• Payment behavior
• Data collection rules
• Background task declarations
• Performance limits
• Accessibility basics
• Developer identity
• External domain ownership

Suggested risk-based review:

Risk level	Experience type	Review method
Low	Static content, catalogs, basic forms	Automated checks
Medium	Login, booking, orders, user data	Automated checks plus sampled review
High	Payments, finance, healthcare, children, location-heavy flows	Manual approval
High background risk	Continuous tracking, frequent background sync	Manual approval
Blocked	Malware, phishing, illegal goods, deceptive content	Not allowed

This preserves speed while protecting users and the platform.

---

25. Performance Strategy

A native app browser must feel fast.

Important performance techniques:

• Preload popular app metadata
• Cache recently opened app experiences
• Lazy-load images
• Use CDN-backed assets
• Compress payloads
• Limit payload size
• Limit component tree depth
• Use skeleton loading states
• Use native virtualized lists
• Suspend inactive tabs
• Limit background task duration
• Monitor API latency
• Track time to interactive
• Clear unused cache automatically
• Support offline mode for selected experiences

Key performance metrics:

• Experience open time
• First content render
• Time to interactive
• Payload size
• Cache hit rate
• API latency
• Rendering error rate
• Crash rate
• Memory usage
• Battery impact
• Background task usage
• Number of active tabs

---

26. App Store and Play Store Considerations

This product must be designed carefully for app-store compliance.

The platform should not be marketed as a way to bypass app-store review. It should be positioned as a controlled platform for safe, native-rendered app experiences.

Recommended compliance principles:

• Avoid arbitrary remote code execution.
• Use declarative schemas instead of executable scripts.
• Keep native API access controlled by the host platform.
• Validate all published experiences.
• Maintain records of app metadata, permissions, and developer ownership.
• Require user consent before sharing sensitive data.
• Provide reporting and blocking features.
• Use stronger review for high-risk categories.
• Follow payment and digital goods policies carefully.
• Ensure background processing is transparent and limited.
• Ensure the host app remains responsible for embedded experiences.

This is one of the biggest business and technical constraints of the product.

---

27. Discovery and Search

The discovery layer is the “address bar” of the native app browser.

Users should be able to search by:

• App name
• Brand
• Category
• Task
• Location
• Service type
• Intent

Examples:

• “Book doctor”
• “Order dinner”
• “Car repair near me”
• “Movie tickets”
• “Pet grooming”
• “Track shipment”
• “Pay water bill”

Search ranking can use:

• Relevance
• Location
• User intent
• Ratings
• Load speed
• App quality score
• Developer reputation
• Completion rate
• Safety score
• Freshness
• Personalization

Sponsored results should be clearly labeled.

---

28. User Features

The user-facing app should include:

• Search bar
• Category feed
• Trending experiences
• Recently used experiences
• Favorites
• Verified experiences
• App detail pages
• Ratings and reviews
• Multi-tab interface
• Recently closed tabs
• Background activity manager
• Privacy dashboard
• Permission manager
• Cache manager
• Activity history
• Report abuse
• Share experience link
• Deep linking
• Notifications
• Login and profile
• Payment wallet, if supported

---

29. Developer Features

The developer platform should include:

• Developer registration
• Experience builder
• Component library
• API connector
• Preview simulator
• Validation tool
• Version manager
• Publishing workflow
• Rollback option
• Background task configuration
• Usage analytics
• Error logs
• Performance dashboard
• Revenue dashboard
• User feedback
• A/B testing
• Permission configuration
• Compliance checklist

---

30. Benefits for Users

Users benefit from:

• One app instead of many apps
• Reduced storage usage
• Faster access to services
• Less download friction
• Fewer updates
• Cleaner home screen
• Easier discovery
• Multi-tab multitasking
• Background task continuity
• Centralized privacy controls
• Faster task completion
• Better experience on low-end devices

This is especially useful for occasional-use services.

---

31. Benefits for Developers

Developers benefit from:

• Faster mobile distribution
• Lower development cost
• Less dependency on full app-store releases
• Shared rendering infrastructure
• Built-in search and discovery
• Easier updates
• Version rollback
• Cross-platform support
• Analytics and monitoring
• Background task support through platform APIs
• Lower maintenance burden

This can help small businesses, startups, local services, and enterprise teams launch mobile experiences quickly.

---

32. Benefits for Platform Owner

The platform owner benefits from:

• A new app ecosystem
• Marketplace network effects
• Higher user retention
• Developer ecosystem growth
• Transaction revenue opportunities
• Sponsored discovery revenue
• Developer subscription revenue
• Enterprise licensing opportunities
• Centralized trust and safety control
• Stronger user relationship
• Higher engagement through tabs and background continuity

The platform becomes more useful as more native app experiences are added.

---

33. Monetization Options

Possible monetization models include:

Developer subscription

Developers pay to publish and manage experiences.

Transaction commission

The platform earns a fee from completed bookings, orders, or transactions.

Sponsored discovery

Developers pay for promoted placement in search or category results.

Premium analytics

Developers pay for advanced usage, funnel, and performance analytics.

Enterprise licensing

Companies use the platform as a private internal native app browser.

Google Ads

The platform can also include an advertising option through Google Ads or other mobile ad networks.

This gives the platform owner and developers another way to monetize native app experiences without requiring users to pay directly.

Platform services

Revenue can come from identity, payments, notifications, hosting, CDN usage, fraud detection, API gateway services, and background processing infrastructure.

---

34. MVP Scope

The MVP should begin with simple and low-risk experiences.

Recommended MVP categories:

• Local business profiles
• Appointment booking
• Event information
• Product catalogs
• Loyalty cards
• Basic forms
• Service requests
• Enterprise internal tools

Recommended MVP components:

• Text
• Image
• Button
• Card
• List
• Search bar
• Form input
• Date picker
• Navigation
• Modal
• API call
• Analytics event

Recommended MVP tab features:

• Open multiple app experiences
• Switch between tabs
• Close tabs
• Restore recent tabs
• Save tab state

Recommended MVP background features:

• Form autosave
• Order status polling
• Booking status polling
• Upload progress
• Limited notification updates

Avoid in MVP:

• Arbitrary developer code
• Open social networking
• Complex games
• Financial trading
• Healthcare diagnosis
• High-risk payments
• Unmoderated user-generated content
• Continuous background location tracking

---

35. Product Roadmap

Phase 1: Prototype

Goal: Prove native remote rendering.

Build:

• Mobile shell
• Component registry
• JSON schema
• Native renderer
• Basic search
• 5 to 10 core components
• Static app experience loading

Phase 2: Multi-Tab MVP

Goal: Add browser-like multitasking.

Build:

• Tab manager
• Open in new tab
• Switch tabs
• Close tabs
• Save tab state
• Restore recently used tabs

Phase 3: Controlled Background Processing

Goal: Support selected background tasks safely.

Build:

• Background task manager
• Task permission model
• Background status UI
• Task expiration rules
• Battery and memory limits
• Developer task declarations

Phase 4: Developer Beta

Goal: Allow selected developers to publish controlled experiences.

Build:

• Developer portal
• Preview tool
• API connector
• Automated validation
• Version management
• Basic analytics
• Rollback feature

Phase 5: Public Launch

Goal: Launch discovery and user adoption.

Build:

• Search ranking
• Categories
• App detail pages
• Favorites
• Recently used experiences
• Ratings and reviews
• Verified developer badges
• Abuse reporting

Phase 6: Monetization

Goal: Add revenue channels.

Build:

• Developer plans
• Sponsored placement
• Premium analytics
• Transaction support
• Revenue dashboard

Phase 7: Ecosystem Expansion

Goal: Scale into a broader native app ecosystem.

Build:

• Advanced components
• AI-powered app discovery
• No-code builder
• Offline support
• Enterprise private marketplaces
• Personalization
• Localization
• Partner APIs

---

36. Competitive Positioning

Alternative	Strength	Weakness	Native app browser advantage
Traditional apps	Full native power	Heavy installs and storage	Instant use without full download
Mobile websites	No install required	Less native experience	App-like native rendering
WebView containers	Flexible	Often slow and inconsistent	Controlled native components
Super apps	Strong ecosystem	Often closed or region-specific	Browser-like access to many native experiences
App stores	Broad distribution	Install-first model	Use-first model
Native app browser	Instant native experiences	Requires strong governance	Search, tabs, background tasks, and native rendering in one platform

The key differentiation is:

A browser-like discovery and multitasking model combined with native mobile rendering.

---

37. Risks and Mitigations

Risk	Why it matters	Mitigation
App-store rejection	Host app is responsible for embedded experiences	Use declarative schemas, avoid arbitrary code, validate experiences
Security abuse	Malicious developers may misuse data	Sandbox, verification, API gateway, monitoring
Poor app quality	Bad experiences reduce trust	Quality score, review tiers, ratings
Slow loading	Users expect instant opening	Caching, CDN, payload limits, native rendering
Too many active tabs	Can increase memory usage	Suspend inactive tabs and limit resources
Background battery drain	Can harm user experience	Limit task duration and frequency
Privacy concerns	Users may worry about data sharing	Permission dashboard, consent, audit logs
Payment complexity	App stores have strict payment rules	Carefully design payment flows
Developer adoption	Developers may resist new platform	Templates, low-code tools, SDKs
User education	Users may not understand the model	Clear onboarding and simple messaging

---

38. Future Vision

The future vision is a world where users access mobile applications as easily as they access websites.

A user could open the native app browser and type:

• “Book a dentist”
• “Order groceries”
• “Join event”
• “Pay rent”
• “Find gym near me”
• “Track my repair request”

The platform would show relevant native app experiences that open instantly.

Future capabilities may include:

• AI-powered search
• Voice commands
• Personalized recommendations
• Auto-generated app experiences
• No-code app creation
• Smart caching
• Offline experiences
• Multi-tab workflows
• Background task automation
• Universal wallet
• Verified business identity
• Enterprise private app spaces
• Cross-device continuity
• Automated compliance scoring

---

Conclusion

This product is best described as a browser for native mobile applications.

It allows users to search, open, use, switch between, and manage native app experiences without downloading a separate full app for every service.

For users, it reduces storage usage, download time, updates, and app clutter. Multi-tab support makes it easier to move between services, while controlled background processing allows important tasks to continue safely.

For developers, it reduces the cost and complexity of mobile publishing.

For the platform owner, it creates a scalable ecosystem with discovery, governance, monetization, and network effects.

The product should be built around four core principles:

1. Instant access for users
2. Fast publishing for developers
3. Safe native rendering for the platform
4. Controlled multitasking through tabs and background processing

If executed well, this model can shift mobile behavior from downloading apps to browsing native app experiences instantly.