Marcus Chen
September 27, 2026
22 min read
Three completely different pieces of software all promise the same thing in 2026: a working copy of Android running on your PC. BlissOS boots as its own operating system straight from a hard drive. Waydroid tucks a full Android build inside a Linux container and hands it your GPU driver directly. The Android Studio Emulator, Google’s own Android Virtual Device (AVD) tool, spins up a virtualized Android device purpose-built for app testing rather than everyday use. They get lumped together in “best Android emulator” roundups constantly, but they solve different problems, run on different host systems, and fail in different ways. This comparison walks through the actual specs, the real 2026 release history, and the trade-offs that decide which one is worth your disk space.
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Three Very Different Ways to Put Android on a PC
Most “Android emulator” comparisons pit near-identical Windows tools like BlueStacks, LDPlayer, and MEmu against each other, since all three are built on the same basic idea: a virtual machine running Android-x86 with a Play Store layer bolted on for mobile gaming. BlissOS, Waydroid, and the Android Studio Emulator take three architecturally distinct approaches instead, and understanding the difference matters more than any spec sheet.
BlissOS is a full operating system. You install it the way you’d install Windows or a Linux distribution, either as a dual-boot partition or inside a virtual machine, and Android becomes the thing your PC boots into. Waydroid is a container. It runs on top of an existing Linux installation and shares the host kernel through Linux namespaces, closer in spirit to Docker than to a traditional virtual machine. The Android Studio Emulator is a development tool. Google built it to simulate Android devices for testing apps across API levels, not to give you a daily-driver Android desktop or a gaming rig.
That distinction shapes everything else in this comparison: system requirements, Google Play support, boot times, and who each tool is actually built for. Anyone searching for an Android emulator for PC in late 2026 is usually trying to solve one of three separate problems, and conflating them is why so many people end up frustrated with the wrong tool.
How These Three Compare to Mainstream Windows Emulators
If you’ve already tried BlueStacks, LDPlayer, MEmu, or MuMu Player and landed here anyway, it’s worth being upfront about why those tools aren’t part of this comparison. They’re built for one job: running mobile games on Windows with the least friction possible, usually inside a lightweight virtual machine with a Play Store layer already configured for you. That makes them the right pick for most casual mobile-gaming-on-PC scenarios, and there’s no reason to replace a working BlueStacks setup with BlissOS just because BlissOS runs closer to the metal.
BlissOS, Waydroid, and the Android Studio Emulator exist for people those mainstream tools don’t serve well: someone who wants Android as their only OS rather than a windowed app, someone running Linux who wants low-overhead access to a handful of Android apps without a second boot environment, and someone building or testing Android software professionally who needs officially certified system images rather than a gaming-optimized fork. None of the three is trying to out-FPS a dedicated Windows gaming emulator, and judging them by that yardstick misses what each one is actually for.
What Is BlissOS? Android as Your PC’s Operating System
BlissOS describes itself directly. As the project’s own GitHub organization puts it, BlissOS is “an Android-based openar device support for x86-based PC hardware & peripherals,” according to the BlissOS GitHub repository. That framing is the whole story: BlissOS isn’t an app you run inside Windows, it’s a replacement for Windows (or a dual-boot partner to it)
The current widely distributed build is BlissOS 16.9, based on Android 13, shipping as an ISO of roughly 2.2GB with a 6.1-series Linux kernel and Mesa 23.3.x graphics components underneath. The BlissOS GitHub organization also lists source branches for BlissOS 17 (Android 14) and BlissOS 18 (Android 15), but as of late September 2026 neither had shipped as a broadly distributed PC ISO comparable to 16.9. That gap between “source exists” and “there’s a stable download” is the single biggest criticism leveled at the project by reviewers who install it as a daily driver.
GApps vs. FOSS Builds
BlissOS ships in two materially different flavors. The GApps build bundles Google Mobile Services, which means Play Store and Play Services are present out of the box, though Play certification and specific game compatibility still aren’t guaranteed on every hardware combination. The FOSS build strips Google’s proprietary components entirely, which matters for anyone treating this as a privacy-conscious project but leaves you sideloading APKs or setting up an alternative app store afterward.
Because BlissOS boots as the host OS rather than running inside a hypervisor, it typically delivers the least graphics overhead of the three options here, provided your GPU is actually supported by the Android-x86 kernel and Mesa driver stack it ships with. That “provided” is doing real work: older or unusual GPU and Wi-Fi hardware is the most commonke behavior, and audio routing remain known rough edges in 2026 builds
What Is Waydroid? Android Inside a Linux Container
Waydroid takes a fundamentally different path. Per the project’s own documentation, “Waydroid is a container-based approach to boot a full Android system on a regular GNU/Linux system like Ubuntu,” according to the official Waydroid documentation. Rather than replacing your Linux install or running a full virtual machine, Waydroid runs Android alongside your existing desktop.
The mechanism behind that is Linux namespaces. As the Waydroid project site explains, “Waydroid uses Linux namespaces (user, pid, uts, net, mount, ipc) to run a full Android system in a container and provide Android applications on any GNU/Linux-based platform.” That’s the same underlying kernel feature that powers Docker and Podman, repurposed to isolate an entire Android userland instead of a single application.
Why Waydroid Feels Faster Than a Virtual Machine
The current tagged release is Waydroid 1.6.3, dated May 28, 2026. Unlike a full VM, Waydroid normally accesses the host GPU directly through Mesa (for Intel and AMD hardware) or the NVIDIA proprietary driver stack, rather than routing every frame through a hypervisor’s virtual display adapter. That’s why setup guides consistently describe Waydroid as feeling closer to native Linux performance than a boxed-in Android emulator, and why its practical memory footprint tends to run lighter than a full AVD.
The trade-off is that “the latest Android version Waydroid supports” isn’t a single fixed number, because it depends entirely on which system image you load. Waydroid’s base container framework is image-agnostic; community-maintained images vary widely, with some builds tracking LineageOS 23.2 (Android 16 QPR2) while official images have historically shipped closer to Android 11 through 13 depending on the branch. Google Play Store and Play Services also aren’t included in a base Waydroid install — you need a separate GApps package, and compatibility is again tied to which image you picked.
What Is the Android Studio Emulator? Google’s Official AVD Tool
The Android Studio Emulator is the outlier in this comparison because Google didn’t build it to run Android as a daily desktop or gaming platform. Per Google’s own developer documentation, “The Android Emulator simulates Android devices on your computer so that you can test your application on a variety of devices and Android API levels without needing to have each physical device,” according to Android Developers. A companion page adds the more general framing that “The Android Emulator lets you develop and test Android apps without using a physical device,” per Android Developers’ command-line emulator documentation.
The current stable build is Android Emulator 37.1.11, released July 30, 2026, and it’s the only one of the three tools in this comparison tied to a specific, actively maintained release cadence from a single vendor. That release added Vulkan extensions required for Android 17 (API 37) system images, keeping the emulator in lockstep with Android 17 Beta, which Google was still testing (Beta 9) as of mid-August 2026.
AVD System Images and Google Play
Because the Android Studio Emulator is distributed through the official SDK Manager, it has access to something neither BlissOS nor base Waydroid can offer without extra work: officially signed Google Play system images, alongside Google APIs images and plain AOSP images. Pick a Play-enabled image and you get Play Store and Play Services pre-installed and behaving the way they would on a certified device. That reliability is precisely why QA teams and app developers standardize on the AVD instead of a consumer Android emulator, even though it’s the weakest of the three for gaming.
One maintenance note worth flagging for anyone running the AVD long-term on Windows: Google has confirmed the older Android Emulator Hypervisor Driver (AEHD) is scheduled for sunset on December 31, 2026, with Windows Hypervisor Platform (WHPX) becoming the preferred virtualization backend going forward. It’s not an immediate breakage, but it’s a maintenance item worth planning around before the new year.
Full Specs Comparison: BlissOS vs. Waydroid vs. Android Studio Emulator
Here’s how the three stack up across the specs that actually change your experience day to day, based on official release notes and current setup documentation for each project.
System Requirements: Why the Android Studio Emulator Wants 16GB of RAM
The RAM gap between these three tools is the single most practical differentiator, and it’s a big one: roughly 4GB to run BlissOS or Waydroid comfortably versus a documented 16GB floor from Google for the Android Studio Emulator, with 32GB recommended for anything beyond a single lightweight AVD. That’s not an arbitrary vendor recommendation either — the emulator is running a full virtualized Android device on top of Android Studio itself, plus Gradle, plus whatever IDE features and background indexing your project triggers. Google’s current guidance for a smooth graphics-heavy experience also calls for eight or more CPU cores and a discrete NVIDIA GPU with at least 4GB of VRAM, a bar neither BlissOS nor Waydroid comes close to requiring.
BlissOS and Waydroid sit much closer together on paper, but the way they hit those numbers is different in practice. BlissOS’s requirements are for the entire machine, since Android is the only OS running. Waydroid’s requirements are additive on top of whatever your Linux desktop environment is already consuming, since the container shares your kernel and runs alongside GNOME, KDE, or whatever compositor you’re using. A machine that runs Waydroid smoothly with a lightweight window manager might feel tighter under a heavier desktop environment.
GPU Acceleration: Three Different Paths to the Same Frame
BlissOS relies on the Android-x86 kernel’s built-in support for your GPU vendor, layered with Mesa for Intel and AMD hardware. If your GPU isn’t in that support matrix, you’re looking at software rendering or a broken install, which is why older or unusual laptop GPUs are the most common cause of BlissOS installation failures reported in community forums.
Waydroid’s approach is arguably the cleanest of the three: because it’s a container rather than a virtual machine, it doesn’t need to virtualize a GPU at all. It hands Android apps direct access to whatever Mesa or NVIDIA driver stack your Linux host already has configured, which is also why NVIDIA’s proprietary driver setup is one of the more common troubleshooting threads in Waydroid communities — when the host driver isn’t configured correctly, the container inherits that problem immediately.
The Android Studio Emulator has the most flexible but also most inconsistent rendering path of the three, since it has to work across Windows, macOS, and Linux hosts with wildly different graphics drivers. Depending on host OS and AVD configuration, it can fall back to host OpenGL, use ANGLE (common on Windows configurations), or use Vulkan for supported system images — and if none of those are available, it drops to software rendering, which comes with a real performance penalty.
Performance Benchmarks: Boot Times, Gaming, and What Isn’t Measured
Here’s the part of this comparison where honesty matters more than a clean chart: there is no standardized, cross-game FPS benchmark published for BlissOS 16.9, Waydroid 1.6.3, or the Android Studio Emulator 37.1.11 as of September 2026. Performance on all three depends heavily on host hardware, GPU drivers, which system image or app is being tested, and configuration choices that vary from one install to the next. Any comparison claiming a specific fixed FPS number for these tools without naming a specific game, GPU, and configuration should be treated skeptically.
What is consistently documented, across setup guides from shattered.io’s Waydroid setup guide, Codersera’s Android Emulators Complete Guide, and Google’s own Android Emulator release notes, is boot time and virtualization overhead. Waydroid typically starts an Android session in roughly 5 to 20 seconds once the container service is already initialized, since it isn’t booting a full kernel — it’s attaching to one that’s already running. BlissOS, booting as a genuine operating system, takes longer: typically 20 to 60 seconds on an SSD in a bare-metal install, closer to standard OS boot times. The Android Studio Emulator lands in a wide range depending on configuration: 20 to 90 seconds with a usable snapshot and hardware acceleration enabled, but 60 to 180 seconds on a cold boot without a snapshot, particularly on a machine without sufficient RAM.
The directional takeaway that most current guides agree on, including AndroidAuthority’s 2026 emulator roundup and AIMultiple’s Android emulator guide, is that bare-metal BlissOS generally offers the least overhead for games that are actually compatible with its hardware support, Waydroid comes close behind it because it skips full virtualization, and the Android Studio Emulator trails both because virtualization and graphics translation overhead are baked into its entire design. None of that changes the fact that a specific game’s anti-cheat system, touch-to-mouse input mapping, or missing sensor data can matter more than raw frame rate for whether it’s actually playable.
Controller and peripheral support also splits along the same lines. BlissOS, running as a genuine OS, generally recognizes USB and Bluetooth gamepads the same way any Linux-based system would, since it’s handling the hardware directly rather than passing input through a virtualization layer. Waydroid inherits whatever input devices the host Linux session already sees, which usually works cleanly for gamepads already configured system-wide but can require extra mapping work for touchscreen-style controls that expect a touch digitizer rather than a mouse. The Android Studio Emulator supports virtual sensor input, GPS spoofing, and simulated hardware buttons specifically because those are useful for testing, but that same testing-first design means real gamepad support is a secondary feature rather than the primary interaction model.
Pricing and Total Cost of Entry
All three tools are free and openicense fee — it’s the hardware you need to buy to actually hit each tool’s recommended specs, plus any incidental costs tied to how you’ll use it
In practice, the Android Studio Emulator is the “expensive” option not because of a license fee but because Google’s own 16GB-minimum, 8-core, discrete-GPU guidance effectively rules out budget hardware. BlissOS and Waydroid can both run acceptably on machines that would struggle to open the emulator at all.
Google Play Store and Play Services Support
This is where the three tools diverge most sharply for anyone who just wants their normal Android apps to work. The Android Studio Emulator is the only one with an officially sanctioned path to a fully Play-certified environment: pick a Google Play system image in the SDK Manager and you get Play Store, Play Services, and Play Integrity behaving as close to a real device as software gets, because that’s literally what Google ships to OEM partners for certification testing.
BlissOS splits the difference with its GApps build, which bundles Google’s proprietary layer but without the OEM-level certification a Play-image AVD gets, meaning some apps that check device attestation may still refuse to run. Waydroid ships with neither by default; getting Play Store working means installing a separate GApps package on top of the base image, and success depends heavily on which community image you’re running and whether it plays nicely with Play Integrity checks. None of the three should be assumed to pass banking-app or DRM-heavy attestation checks reliably, and anyone relying on those specific apps should test before committing to a setup.
Five Real-World Use Cases
The abstract specs matter less than how people are actually using these three tools in 2026. Here are six concrete scenarios that map cleanly onto one option each.
- The Linux gaming enthusiast. Someone running a Linux gaming distribution who wants a handful of Android-only apps — a mobile game with no Linux client, a chat app, a fitness tracker companion — installs Waydroid alongside their existing Steam library rather than dedicating a whole partition to Android. Because the container shares the host GPU driver, it launches from the desktop in seconds rather than requiring a reboot.
- The mobile app QA engineer. A team shipping an app targeting Android 17 (API 37) standardizes on the Android Studio Emulator with a Play-enabled AVD and Pixel-profile device definitions, wiring it into Gradle and Appium for automated instrumentation tests ahead of a release. Snapshots let the team reset to a clean device state between test runs instead of re-flashing anything.
- The retro-PC or kiosk builder. Someone repurposing an old laptop or a cheap mini PC as a dedicated Android box for the living room installs the BlissOS GApps build as the machine’s only OS, treating it like a low-cost Android TV box with a full desktop underneath. Because there’s no host OS competing for resources, even modest four-year-old hardware stays responsive.
- The CI/CD pipeline maintainer. A backend team running automated UI tests on every pull request relies on headless Android Studio Emulator instances with pre-baked snapshots, since it’s the only option here built around reproducible, scriptable device states across multiple Android API levels in the same pipeline run.
- The Linux desktop user avoiding a second device. Someone who needs one specific banking or authenticator app that has no usable web version installs Waydroid purely to run that one app inside their existing Linux session, without booting into a separate OS or keeping a physical phone nearby for two-factor codes.
- The hardware tinkerer building a dedicated Android mini PC. A hobbyist buys a fanless, budget mini PC specifically to run BlissOS as a standalone Android streaming and casual-gaming box, wired directly to a TV, since the bare-metal install avoids the licensing and driver overhead of running Android inside Windows or macOS virtualization software.
Security and Stability: What the 2026 Data Shows
Security posture differs as much as performance does, and it’s worth separating “how isolated is this from my real system” from “how likely is it to break.”
Waydroid’s Isolation Depends on the Host
Because Waydroid uses Linux namespaces rather than a hardware-isolated virtual machine, its security boundary is meaningfully different from a fully separate device. The OWASP Mobile Application Security Testing Guide notes broader emulator-security considerations that apply here too, including the reality that malware targeting emulated environments and USB-bridge-style attacks are documented concerns across emulator platforms generally, not unique to Waydroid. Because Waydroid’s Android environment runs inside the same kernel as your Linux desktop, a compromised app has a shorter path to the host than it would inside a fully virtualized machine — a trade-off that’s the direct cost of the low overhead that makes Waydroid feel fast in the first place.
BlissOS and the AVD’s Different Maintenance Models
BlissOS, as a community-maintained Android-x86 project, doesn’t have a standardized security-patch cadence comparable to Google’s monthly Android security bulletins — patches land when maintainers have time, and the slow cadence between 16.9 and any stable 17-based release is one symptom of that. The Android Studio Emulator sits at the opposite end: because it ships official Google system images, it inherits Google’s Android security bulletin coverage directly, and the tool itself gets frequent point releases (37.1.11 as of late July 2026) tied to Google’s own development cycle. That’s a meaningful reason CI/CD pipelines and enterprise QA teams default to the AVD over consumer-facing alternatives, independent of performance considerations.
Stability complaints in 2026 skew differently across the three: BlissOS users report the most hardware-specific issues (Wi-Fi drivers, sleep/wake, multi-monitor output), Waydroid users report the most driver- and Wayland-session-specific issues (particularly around NVIDIA’s proprietary stack and non-Wayland desktop environments), and Android Studio Emulator users mostly report resource-exhaustion issues tied directly to the RAM and disk requirements outlined earlier.
Migration Guide: Moving Between These Three Setups
Switching from one of these tools to another isn’t a simple file copy, since the underlying architecture is different in each direction. Before starting any of the three migrations below, confirm what you actually need preserved: app data that lives in a developer’s own cloud backend usually survives a migration automatically, while purely local save files, sideloaded APKs, and any manually granted permissions typically don’t carry over and need to be recreated on the new setup. Here’s the practical path for the three most common moves.
From a Windows Emulator (BlueStacks/LDPlayer-style) to BlissOS
- Back up any in-app data through each app’s own cloud-sync feature first; local emulator save files generally don’t transfer across architectures.
- Download the current BlissOS ISO (GApps build if you need Play Store) and verify the checksum.
- Create bootable USB media using a tool like Rufus or Etcher, since BlissOS installs as a real OS rather than a Windows application.
- Back up your existing Windows partition or shrink it to free space for a dual-boot install, or dedicate a separate drive entirely.
- Boot from USB, verify GPU and Wi-Fi are detected in the live environment before committing to a full install.
- Complete the install, set up the bootloader, and reboot into BlissOS.
- Sign back into Google Play (GApps build) and reinstall your apps, then restore cloud-synced data.
From an Android Studio AVD to Waydroid for Quick Manual Testing
Developers who only need occasional manual sanity checks, rather than full API-level test coverage, sometimes keep a lightweight Waydroid instance around instead of spinning up Android Studio for every quick check. The commands below reflect a typical Debian/Ubuntu-based setup:
sudo curl -s https://repo.waydro.id | sudo bash
sudo apt update
sudo apt install waydroid -y
sudo waydroid init
sudo systemctl start waydroid-container
waydroid session start
waydroid app install your-app-debug.apk
waydroid show-full-uiThe debug APK you’d normally sideload onto an AVD or physical device installs the same way here, which is exactly why this shortcut works for manual smoke tests even though it isn’t a substitute for full instrumentation testing on official system images.
Creating a Play-Enabled AVD from Scratch
For teams standardizing on the Android Studio Emulator for the first time, the command-line path avoids clicking through the GUI wizard repeatedly across CI machines:
sdkmanager "system-images;android-34;google_apis_playstore;x86_64"
avdmanager create avd -n pixel_test_device
-k "system-images;android-34;google_apis_playstore;x86_64"
-d pixel_7
emulator -avd pixel_test_device -gpu host -no-snapshot-loadSwap the API level in the system image string as new images ship, and drop the -no-snapshot-load flag once you’ve got a known-good snapshot state you want subsequent boots to reuse.
Pros and Cons of Each Option
BlissOS
- Pro: Lowest virtualization overhead of the three since it boots as the actual OS
- Pro: Runs acceptably on older or budget hardware
- Pro: Genuine desktop-like Android experience, not a windowed app
- Con: Slow release cadence; Android 14/15-based builds hadn’t shipped as stable PC ISOs as of September 2026
- Con: Hardware compatibility (GPU, Wi-Fi, sleep) is inconsistent across machines
- Con: Requires a dedicated partition or drive, unlike a simple app install
Waydroid
- Pro: Minimal overhead; runs alongside your existing Linux desktop rather than replacing it
- Pro: Direct host GPU access without a virtual display adapter layer
- Pro: Fastest boot/resume time of the three
- Con: Linux-only, and specifically needs a working Wayland session
- Con: No built-in Google Play; a separate GApps image is required and image quality varies
- Con: Security boundary is weaker than a full VM since it shares the host kernel
Android Studio Emulator
- Pro: Official Google Play system images with real device-certification behavior
- Pro: Actively maintained on a predictable release schedule tied to Android itself
- Pro: Purpose-built for automated testing, snapshots, and CI/CD integration
- Con: Highest hardware bar of the three (16GB RAM floor, discrete GPU guidance)
- Con: Weakest gaming performance due to full virtualization overhead
- Con: Full SDK footprint can balloon past 50–100GB of disk space
Which Should You Choose? Five Scenario-Based Recommendations
- Building or testing Android apps professionally: Android Studio Emulator, no contest. It’s the only option with official Play-certified images and CI/CD tooling built around it.
- You already run Linux and want a few Android apps: Waydroid. Lower overhead than a VM, and it doesn’t force you into a second boot environment.
- You want a dedicated Android gaming or kiosk box: BlissOS on inexpensive or repurposed hardware, provided you check GPU and Wi-Fi compatibility before committing.
- You need reproducible automated tests across many Android versions: Android Studio Emulator with scripted AVD creation and snapshots, exactly as shown in the migration guide above.
- You’re not on Linux and don’t want to dual-boot or learn Android Studio: none of these three is actually the right fit — a consumer Windows/Mac emulator built for gaming is the better starting point, and this comparison isn’t the one to send you down that road.
The Verdict
There isn’t a single winner here because there isn’t a single job. If the metric is “which one is actually maintained on a predictable schedule with official Google backing,” the Android Studio Emulator wins clearly: 37.1.11 landed July 30, 2026, tracks Android 17/API 37 already, and comes with a real security-patch pipeline behind it. If the metric is “least overhead for the hardware I already own,” Waydroid wins on Linux and BlissOS wins everywhere else, since both skip full hardware virtualization in favor of a shared kernel or bare-metal boot.
The one number worth remembering above all the others is the RAM gap: roughly 4GB to get BlissOS or Waydroid running versus a documented 16GB floor for the Android Studio Emulator. That single figure decides which of these three is even usable on a given machine before performance, Play Store support, or anything else enters the conversation. Pick based on the job — development and testing, a lightweight Linux app or two, or a dedicated Android box — and the right tool here is rarely ambiguous once that job is clear.
Frequently Asked Questions
Is BlissOS safe to install as my main operating system?
BlissOS is openits patch cadence is community-driven rather than backed by a vendor security bulletin, and the current stable PC build is still based on Android 13. Most reviewers recommend it for a dedicated device or dual-boot setup rather than replacing your only PC’s primary OS outright
Does Waydroid work on Windows or macOS?
No. Waydroid requires a Linux host with a compatible kernel and, in normal desktop use, a Wayland session. There is no official Windows or macOS build.
Can the Android Studio Emulator run games well?
It can run most games for testing purposes, but it’s built for app development and testing rather than sustained gaming performance, and full virtualization overhead makes it the slowest of the three options in this comparison for that use case. No standardized cross-game FPS benchmark for 37.1.11 was available as of September 2026.
Do I need Google Play Store working for any of these?
Only if your use case requires it. The Android Studio Emulator offers official Play-enabled system images through the SDK Manager. BlissOS includes Play access only in its GApps build. Waydroid requires a separate GApps package installed on top of its base image, with compatibility varying by which Android image you’re running.
How much RAM do I actually need for smooth performance?
Roughly 4GB is a practical minimum for both BlissOS and Waydroid, with 8GB or more recommended for multitasking or gaming. The Android Studio Emulator has a documented 16GB floor from Google, with 32GB recommended for larger AVDs alongside Android Studio and Gradle running simultaneously.
Which option is best for a low-budget PC or old laptop?
BlissOS, provided the machine’s GPU and Wi-Fi chipset are supported by its Android-x86 kernel, since it carries no hypervisor or full desktop OS overhead on top of Android itself. Waydroid is a close second option if the machine is already running Linux.
Is the Android Emulator Hypervisor Driver (AEHD) going away?
Google has confirmed AEHD is scheduled for sunset on December 31, 2026, with Windows Hypervisor Platform (WHPX) becoming the preferred virtualization backend for the Android Studio Emulator on Windows going forward. It’s a planned transition rather than an immediate removal.
Can I run all three of these on the same PC?
Yes, with caveats. The Android Studio Emulator runs fine on Windows, macOS, or Linux alongside other software. Waydroid needs a Linux host, so it can coexist with the AVD on the same Linux machine. BlissOS, since it boots as its own OS, needs either a separate drive, a dual-boot partition, or a virtual machine to coexist with the other two on one physical computer.
Why doesn’t Waydroid include Google Play Store by default?
Waydroid’s core project focuses on the container framework itself rather than bundling Google’s proprietary Mobile Services, partly to avoid licensing complications and partly because the framework is meant to work with any Android image, not just Google-certified ones. Users who want Play Store add a separate GApps package after the base install, with results depending on which Android image they’ve loaded.
Is there a newer BlissOS build than 16.9 for PC?
Not as a broadly distributed PC ISO as of late September 2026. The BlissOS GitHub organization lists BlissOS 17 (Android 14) and BlissOS 18 (Android 15) as activee PC download comparable to 16.9 at the time of writing. Anyone installing BlissOS today should expect to be running an Android 13-based build rather than something newer
