Bluetooth technology has been a cornerstone of wireless connectivity for decades, enabling everything from wireless headphones to smart home devices. However, as user demands for better audio quality, lower power consumption, and more versatile applications have grown, the limitations of classic Bluetooth audio have become apparent. Enter LE Audio, a revolutionary advancement built on Bluetooth Low Energy (BLE) that promises to redefine wireless audio for both technical enthusiasts and everyday users. Introduced by the Bluetooth Special Interest Group (SIG) in 2020, LE Audio brings a suite of new features and capabilities that enhance performance, accessibility, and flexibility. Let’s dive into what LE Audio is, how it works, and why it matters.

What Is LE Audio?

LE Audio is a next-generation audio standard that leverages Bluetooth Low Energy, a power-efficient variant of Bluetooth originally designed for IoT devices and short-range data exchange. Unlike Classic Audio, which relies on the older Bluetooth BR/EDR (Basic Rate/Enhanced Data Rate) protocol, LE Audio operates entirely on BLE. This shift allows for significant improvements in energy efficiency, making it ideal for small, battery-powered devices like earbuds, hearing aids, and wearables. But LE Audio isn’t just about power savings—it introduces a new audio codec, advanced sharing features, and support for a broader range of use cases.

At its core, LE Audio is designed to coexist with Classic Audio, meaning devices can support both standards depending on their hardware capabilities. However, LE Audio’s features make it a forward-looking solution that addresses modern audio needs, from high-fidelity music streaming to assistive listening technologies.

The LC3 Codec: Better Sound, Smaller Footprint

One of the standout features of LE Audio is its new codec, the Low Complexity Communication Codec (LC3). In audio terms, a codec compresses and decompresses digital audio data for transmission and playback. Classic Bluetooth Audio relies on the SBC (Subband Coding) codec, with optional support for higher-quality codecs like aptX or AAC. While these can deliver decent sound, they often trade off between quality and efficiency, especially at lower bitrates.

LC3 changes the game by offering superior audio quality at lower bitrates compared to SBC. For example, LC3 can deliver clear, detailed sound at bitrates as low as 160 kbps, whereas SBC struggles to maintain quality below 200 kbps. This efficiency means devices can stream high-quality audio while using less power and bandwidth—crucial for wireless earbuds or hearing aids with tiny batteries. For audiophiles, LC3 also supports higher bitrates for near-lossless playback, making it a versatile choice across different devices and user preferences.

Multi-Stream Audio: True Wireless Freedom

Another key innovation in LE Audio is Multi-Stream Audio, which enables a single device—like a smartphone—to send synchronized, independent audio streams to multiple endpoints, such as a pair of earbuds. In Classic Bluetooth, true wireless stereo (TWS) earbuds often rely on one bud receiving the audio and relaying it to the other, which can introduce latency or connection issues. With Multi-Stream Audio, each earbud receives its own stream directly from the source, improving synchronization and reliability. This also reduces power consumption since there’s no need for inter-bud communication.

For users, this translates to a seamless stereo experience with no noticeable lag between left and right channels—perfect for music, movies, or gaming. It also opens the door to more advanced applications, like sending different audio streams to separate devices (e.g., one stream for a podcast and another for navigation alerts).

Auracast: Broadcasting Audio to the Masses

Perhaps the most exciting feature of LE Audio is Auracast, a broadcast audio capability that lets a single transmitter send audio to an unlimited number of nearby receivers. Think of it as a modern take on FM radio, but with Bluetooth precision and security. Auracast can be used in public spaces like airports, gyms, or theaters, where a transmitter broadcasts announcements, music, or live translations to any compatible device within range.

Users can join an Auracast stream by scanning for available broadcasts, much like connecting to a Wi-Fi network. The system supports encrypted streams for private use (e.g., a guided tour) and unencrypted ones for public access (e.g., a TV in a bar). Adding to its versatility, Auracast introduces a new Bluetooth role called the "Assistant." This role enables devices, such as smartphones or dedicated hubs, to act as intermediaries that detect and manage nearby Auracast broadcasts. Assistants can provide users with a list of available streams, handle authentication for secure broadcasts, and even prioritize streams based on user preferences—enhancing the experience in crowded or complex environments. This feature not only boosts convenience but also has huge implications for accessibility, as we’ll explore next.

Hearing Aid Support and Accessibility

LE Audio brings native support for hearing aids, a major step forward in making wireless audio inclusive. With Classic Bluetooth, hearing aids often required proprietary solutions or intermediary devices to connect to phones or other audio sources. LE Audio’s low-power design and LC3 codec make it feasible for hearing aids to stream audio directly from smartphones, TVs, or Auracast broadcasts without draining their tiny batteries.

For people with hearing impairments, this means better access to phone calls, music, and public audio systems. Imagine walking into a lecture hall and tuning your hearing aid to an Auracast stream of the speaker’s voice—clear, amplified, and in real time. This integration of accessibility into a mainstream standard is a game-changer.

Why LE Audio Matters

So, why should you care about LE Audio? For one, it’s more efficient, meaning longer battery life for your devices. It delivers better sound quality without taxing your hardware, which is a win for both casual listeners and audiophiles. Features like Multi-Stream Audio and Auracast expand what’s possible with wireless audio, from flawless true wireless earbuds to shared listening experiences in public spaces. And its hearing aid support ensures that more people can benefit from these advancements.**

From a technical perspective, LE Audio’s use of BLE aligns it with the broader ecosystem of low-power IoT devices, making it a future-proof standard. Manufacturers are already adopting it—high-end earbuds, smartphones, and even TVs are rolling out LE Audio support as of 2025. However, adoption isn’t universal yet, as it requires both hardware and software updates.

The Future of Wireless Sound

LE Audio isn’t just an incremental update; it’s a leap forward that re-imagines Bluetooth audio for the modern world. Whether you’re a tech enthusiast marveling at LC3’s efficiency, a commuter enjoying lag-free earbuds, or someone benefiting from enhanced hearing aid connectivity, LE Audio has something to offer. As devices continue to embrace this standard, expect wireless audio to become more powerful, versatile, and accessible than ever before. The era of LE Audio has begun—and it’s poised to change how we listen.

Gigawit Technology focuses on several key areas within the Bluetooth audio industry, driving innovation and delivering advanced solutions.

Core Focus Areas

• Bluetooth Audio Transmission and Reception: Gigawit's primary focus is on Bluetooth audio transmission and reception technology. The company leverages Qualcomm's QCC chips and develops software and hardware solutions to enhance audio quality, connectivity, and user experience.
• LE Audio Technology: Gigawit is heavily invested in LE Audio, the next generation of Bluetooth audio. The company is dedicated to achieving breakthroughs in this field, developing solutions that leverage the new capabilities of LE Audio, such as Auracast broadcast audio.
• High-Quality Audio Codecs: Gigawit supports a wide range of audio codecs, including LDAC, aptX family, LHDC, and LC3. The company is committed to delivering high-fidelity audio experiences, with a focus on low latency and high definition.
• Wireless Connectivity Solutions: Gigawit develops solutions that enhance wireless connectivity, such as dual-stream capabilities for simultaneous streaming to multiple devices and technologies like Qualcomm XPAN for improved connectivity range and stability.
• Product Development and Manufacturing: Gigawit offers end-to-end product development and manufacturing services, from PCBA design to complete Bluetooth audio transceivers. The company's expertise includes hardware design, software development, and testing to ensure high-quality products.

Strategic Direction

Gigawit's strategic focus is on:

• Innovation: Driving the evolution of Bluetooth audio through continuous research and development.
• Quality: Ensuring high standards of product quality and reliability through rigorous testing and quality control processes.
• Customer Satisfaction: Meeting the diverse needs of clients by providing customized solutions and excellent service.

By concentrating on these key focus areas, Gigawit is positioned to remain a leader in the Bluetooth audio industry, delivering cutting-edge solutions and shaping the future of wireless audio.

Gigawit Technology offers a comprehensive suite of services centered around Bluetooth audio technology. With a strong emphasis on innovation and quality, Gigawit provides end-to-end solutions that cater to diverse client needs.

Core Service Areas

• Software Development: Gigawit excels in Bluetooth audio transmission and reception technology, leveraging Qualcomm's advanced QCC chips. The company provides LDAC encoding, multi-OS application support, USB audio capabilities, and low latency proprietary codecs. Gigawit is also at the forefront of LE Audio technology, developing solutions for next-generation audio applications.
• Hardware Development: Gigawit offers strong hardware integration and design capabilities, meeting customers' in-depth design requirements. Services include PCBA design and manufacturing, display screen integration, audio analog output, HDMI audio extraction, power management, and self-developed testing kits.
• Bluetooth Modules: Gigawit designs and manufactures Bluetooth modules based on Qualcomm's Snapdragon Sound chips and QCC chips. These modules are designed for various applications, including Bluetooth receivers, transmitters with LDAC encoding, and ultra-performance audio.
• Custom Solutions: Gigawit collaborates with renowned brands to fulfill specific requirements, such as receiver + DAC, receiver with SPDIF, USB transmitter with LDAC, CD + BT transmission, vinyl player + BT transmission, and conference call speaker solutions.
• Testing and Quality Assurance: Gigawit is equipped with professional testing equipment to ensure the quality and reliability of its products. The company has also developed the Riteblue testing system for production line efficiency and quality control.

Key Differentiators

• Full-Stack Capabilities: Gigawit's expertise spans across Bluetooth protocols, audio processing, app development, production testing tools, and software and hardware development.
• Innovation: Gigawit is committed to continuous improvement and innovation, as demonstrated by its early adoption of LE Audio technology and development of proprietary codecs.
• Compatibility and Stability: Gigawit's solutions are known for their compatibility and stability, achieved through collaboration with renowned brands and extensive user feedback.

Gigawit's comprehensive service offerings and commitment to excellence make it a trusted partner for businesses seeking cutting-edge Bluetooth audio solutions.

Gigawit: Pioneering the Future of Bluetooth Audio

Established in 2007 in Shenzhen, Gigawit Technology has become a key player in wireless audio technology. With experienced core members, Gigawit focuses on research and development, holding core technologies in short-range wireless communication protocols and digital audio codecs. Its Bluetooth audio products are used by top international OEM manufacturers and brands.

Gigawit excels in Bluetooth audio technology, with full-stack capabilities in Bluetooth protocols, audio processing, app development, production testing tools, and software and hardware development. The company is committed to creating world-class Bluetooth audio solutions.

Gigawit is at the forefront of Bluetooth audio transmission and reception, utilizing Qualcomm's advanced QCC chips. The company achieved the world's first LDAC encoding on QCC chips, enhancing audio for audiophiles. Gigawit also provides multi-OS application support, USB audio, and low latency proprietary codecs like LightSync.

Embracing the future, Gigawit is heavily invested in LE Audio technology, aiming for breakthroughs in hardware and software. LE Audio introduces new features like Auracast, enabling audio source devices to broadcast to numerous audio sink devices.

Gigawit has developed a dedicated management application with multi-OS support, advanced Bluetooth settings, and firmware upgrade capabilities.

Gigawit also has strong hardware integration and design capabilities, including PCBA design and manufacturing, display screen integration, audio output, HDMI audio extraction, and power management. The company develops Bluetooth modules based on Qualcomm's Snapdragon Sound and QCC chips for various applications.

Gigawit is preparing for the future with technologies like Qualcomm XPAN, designed to work with Snapdragon Sound for enhanced connectivity and high-bit-rate audiophile music streaming.

To ensure quality and efficiency, Gigawit has developed the Riteblue testing system for its production line, including software flashing, frequency calibration, and power testing.

Gigawit is dedicated to compatibility and stability in its Bluetooth audio transmitter solutions, offering advanced codecs, including LDAC encoding and LE-Audio support. The company also develops portable DAC amps with Bluetooth and Bluetooth audio transceivers with HiFi DAC capabilities.

Gigawit is equipped with professional testing equipment to support its R&D plans, including Audio Precision, BPA-600, LitePoint, HP, and Advantest tools.

Auracast is a new Bluetooth Low Energy (LE) Audio capability that allows an audio transmitter, such as a smartphone, TV, or public address system, to broadcast audio to an unlimited number of nearby Bluetooth LE Audio receivers, like earbuds, hearing aids, or speakers. Imagine a public space where you can tune into the audio of a silent TV, receive real-time translations, or listen to announcements with your own personal device. This is the promise of Auracast.

The Foundation: Bluetooth LE Audio

To understand Auracast, we must first understand its foundation: Bluetooth LE Audio. This is the next generation of Bluetooth audio, designed to improve audio quality, reduce power consumption, and enable new audio experiences.

Bluetooth LE Audio's key features:

• LC3 Codec: Bluetooth LE Audio uses the Low Complexity Communication Codec (LC3), which offers superior audio quality at lower bitrates compared to the classic SBC codec. This means higher fidelity audio with less data, leading to improved efficiency and battery life.
• Multi-Stream Audio: LE Audio allows for multiple synchronized audio streams between a source and one or more receivers. This enables features like truly wireless stereo earbuds, where each earbud receives its own independent audio stream.
• Broadcast Audio: This is where Auracast comes in. LE Audio's broadcast capabilities allow for one-to-many audio transmissions, opening up a world of possibilities for public and personal audio experiences.
• Hearing Aid Support: Bluetooth LE Audio is designed with hearing aids in mind, offering improved audio quality and accessibility for users with hearing impairments.

Auracast in Action: Real-World Applications

Auracast's potential applications are vast and diverse, spanning various sectors and use cases. Here are some key areas where Auracast is poised to make a significant impact:

1. Public Spaces:

   • Silent TVs: In airports, gyms, and waiting rooms, Auracast allows users to listen to the audio of silent TVs directly on their personal devices, eliminating the need for noisy speakers or cumbersome headphones.
   • Assistive Listening: Auracast can provide enhanced audio accessibility in theaters, lecture halls, and places of worship, ensuring that everyone can hear clearly, regardless of their hearing ability.
   • Information and Announcements: Public address systems can use Auracast to broadcast announcements, emergency alerts, and informational messages directly to users' devices, ensuring that everyone receives critical information.
   • Translation Services: In multilingual environments, Auracast can provide real-time translations of speeches and presentations, breaking down language barriers and fostering communication.

2. Personal Audio:

   • Shared Listening Experiences: Auracast allows groups of friends or family members to listen to the same audio stream on their personal devices, creating shared listening experiences in public or private settings.
   • Personalized Audio Environments: Users can tune into specific audio streams in crowded environments, such as a museum or art gallery, to receive personalized audio tours or information.
   • Fitness and Wellness: Gyms and fitness studios can use Auracast to broadcast workout instructions and music to participants' devices, creating immersive and engaging fitness experiences.

3. Entertainment and Events:

   • Silent Discos: Auracast can power silent discos, allowing participants to choose from multiple music channels and dance to their preferred tunes.
   • Outdoor Events: Auracast can provide audio for outdoor events, such as festivals and concerts, ensuring that everyone can hear clearly, regardless of their location.
   • Movie Theaters: Auracast can provide alternative audio streams for movie theaters, such as descriptive audio for visually impaired viewers or foreign language translations.

4. Accessibility:

   • Hearing Assistance: Auracast is a major step forward in accessibility, improving the quality of audio for hearing aid users in public spaces.
   • Visual Impairment Support: Auracast can provide descriptive audio and navigation cues for visually impaired individuals, enhancing their independence and accessibility.

Technical Aspects of Auracast

Auracast relies on several key technical features of Bluetooth LE Audio:

• Broadcast Isochronous Streams (BIS): BIS are used to transmit audio data to multiple receivers simultaneously.
• Broadcast Assistant: A device or service that provides information about available Auracast broadcasts, such as the broadcast name, language, and description.
• Scanning and Selection: Users can scan for available Auracast broadcasts using their devices and select the desired stream to listen to.
• Synchronization: Bluetooth LE Audio ensures that all receivers are synchronized to the same audio stream, providing a seamless listening experience.

Benefits of Auracast

• Enhanced Accessibility: Auracast improves audio accessibility for individuals with hearing impairments and other accessibility needs.
• Improved Audio Quality: The LC3 codec provides superior audio quality compared to traditional Bluetooth audio.
• Increased Efficiency: Bluetooth LE Audio's low power consumption extends battery life for both transmitters and receivers.
• Greater Flexibility: Auracast enables a wide range of new audio experiences in public and personal settings.
• Scalability: Auracast can support an unlimited number of receivers, making it ideal for large public spaces.

Challenges and Considerations

While Auracast holds immense promise, there are some challenges and considerations to address:

• Interoperability: Ensuring interoperability between different Auracast devices and platforms is crucial for a seamless user experience.
• Security and Privacy: Implementing robust security and privacy measures is essential to protect user data and prevent unauthorized access to audio streams.
• Adoption and Awareness: Raising awareness of Auracast and encouraging its adoption by manufacturers and service providers is crucial for its success.
• Network Congestion: In environments with a large number of Auracast broadcasts, there is a risk of network congestion, which could affect audio quality.

The Future of Auracast

Auracast is still in its early stages, but its potential to transform the way we experience audio is undeniable. As the technology matures and adoption increases, we can expect to see a wide range of innovative applications and use cases emerge.

In the future, Auracast could become an integral part of our daily lives, providing seamless and personalized audio experiences in public spaces, entertainment venues, and beyond. It is a technology that will help create more inclusive, accessible, and connected audio environments for everyone.

Auracast represents a significant leap forward in audio technology, offering a new era of audio broadcasting that is set to revolutionize the way we experience sound. It is a technology that will help create more inclusive, accessible, and connected audio environments for everyone.

As the two 2 key profiles that tailor LE Audio's capabilities for specific use cases - GMAP and TMAP that are shaping the future of wireless audio experiences.

Before we dive into GMAP and TMAP, it's essential to reiterate the core principles of Bluetooth LE Audio. This next-generation audio standard is built upon the Bluetooth Low Energy (LE) radio, offering significant improvements over Classic Bluetooth Audio. Key advancements include:

• LC3 Codec: The Low Complexity Communication Codec (LC3) provides superior audio quality at lower bitrates, enabling efficient and high-fidelity audio transmission.
• Multi-Stream Audio: LE Audio allows for multiple synchronized audio streams, enabling features like truly wireless stereo earbuds and personalized audio experiences.
• Broadcast Audio: The ability to broadcast audio to an unlimited number of devices unlocks a world of possibilities, from public address systems to shared listening experiences.

Within this framework, profiles like GMAP and TMAP define how LE Audio is utilized for specific applications.

TMAP: Telephony and Media Audio Profile

TMAP, or the Telephony and Media Audio Profile, is designed to provide interoperable support for traditional audio use cases, such as voice calls and media streaming. It aims to seamlessly transition these experiences to the LE Audio platform, offering enhanced quality and efficiency.

Key Features and Functionality:

• Voice Call Support: TMAP enables high-quality voice calls over LE Audio, leveraging the LC3 codec for improved clarity and intelligibility. This is particularly beneficial in noisy environments or for users with hearing impairments.
• Media Streaming: TMAP facilitates the streaming of music, podcasts, and other audio content with enhanced fidelity and power efficiency. The LC3 codec's ability to deliver high-quality audio at lower bitrates translates to longer battery life for both source and receiver devices.
• Interoperability: TMAP ensures that devices from different manufacturers can seamlessly interoperate for telephony and media audio applications. This is crucial for a consistent and user-friendly experience.
• Standardized Implementation: TMAP provides a standardized framework for implementing telephony and media audio functionality over LE Audio, simplifying development and ensuring compatibility.
• Backward Compatibility: While TMAP leverages the advantages of LE Audio, it also considers backward compatibility with existing Bluetooth audio devices, facilitating a smooth transition.
• Focus on General Audio: TMAP is designed to be a general audio profile. It provides a baseline for audio communication, and is not optimized for very low latency or very precise synchronization.

Use Cases for TMAP:

• Wireless headsets for voice calls and music listening
• Smartphones and tablets for media playback
• Wireless speakers and soundbars
• Automotive audio systems

GMAP: Gaming Audio Profile

GMAP, or the Gaming Audio Profile, is tailored specifically for the demanding requirements of gaming audio. It addresses the unique challenges of delivering immersive and responsive audio experiences in gaming environments.

Key Features and Functionality:

• Ultra-Low Latency: GMAP prioritizes ultra-low latency to ensure that audio feedback is synchronized with in-game actions. This is crucial for competitive gaming, where even a few milliseconds of delay can make a significant difference.
• Precise Audio Synchronization: GMAP mandates precise audio synchronization between left and right channels to create a realistic and immersive soundstage. This is essential for spatial audio and accurate sound localization.
• Optimized for Real-Time Audio: GMAP is optimized for real-time audio transmission, minimizing delays and ensuring that audio feedback is delivered instantaneously.
• Reduced Retransmissions: GMAP implements techniques to minimize retransmissions, which can introduce latency and disrupt the audio stream.
• Gaming Audio Service (GMAS): GMAP utilizes the Gaming Audio Service (GMAS) for service discovery, enabling devices to identify and connect to gaming audio streams.
• Strict Testing Requirements: GMAP mandates rigorous testing for latency, synchronization, and other performance metrics to ensure a consistent and high-quality gaming audio experience.
• Focus on Low Latency: GMAP is a specialized profile, and places extreme focus on achieving the lowest possible latency.

Use Cases for GMAP:

• Wireless gaming headsets
• Gaming consoles and PCs
• Mobile gaming devices
• Virtual reality (VR) and augmented reality (AR) gaming systems

Key Differences Between GMAP and TMAP:

• Latency: GMAP prioritizes ultra-low latency, while TMAP focuses on general audio quality and efficiency.
• Synchronization: GMAP mandates precise audio synchronization between left and right channels, while TMAP has less stringent requirements.
• Use Case: GMAP is specifically designed for gaming audio, while TMAP caters to telephony and media audio.
• Service Discovery: GMAP uses the Gaming Audio Service (GMAS), while TMAP utilizes different service discovery methods.
• Testing Requirements: GMAP has more rigorous testing requirements to ensure ultra-low latency and precise synchronization.

The Significance of GMAP and TMAP:

GMAP and TMAP are essential components of the LE Audio ecosystem, enabling a wide range of innovative audio experiences. By tailoring LE Audio's capabilities to specific applications, these profiles ensure that users can enjoy high-quality, efficient, and responsive audio in various scenarios.

• TMAP facilitates the transition of traditional audio use cases to the LE Audio platform, offering enhanced quality and efficiency.
• GMAP unlocks the potential for immersive and responsive gaming audio experiences, pushing the boundaries of audio technology.

As LE Audio adoption continues to grow, GMAP and TMAP will play a crucial role in shaping the future of audio, enabling seamless and personalized audio experiences for users worldwide.

The landscape of wireless audio has been revolutionized by advancements in Bluetooth technology, with Qualcomm's Snapdragon Sound platforms playing a pivotal role. The Qualcomm S3, S5, and S7 series of Bluetooth audio SoCs represent significant leaps forward in delivering high-fidelity, low-latency audio experiences.

Qualcomm Snapdragon Sound Platforms

• Snapdragon S3 Sound Platform: Designed for mainstream audio applications, the S3 platform brings key features of Snapdragon Sound to a broader range of devices. It emphasizes improved audio quality, reliable connectivity, and enhanced user experiences for wireless audio products.
• Snapdragon S5 Sound Platform: The S5 platform targets premium audio devices, offering advanced features and performance. It supports higher resolution audio, lower latency, and improved power efficiency, catering to the needs of audiophiles and users who demand the best wireless audio experience.
• Snapdragon S7 Sound Platform: As Qualcomm's flagship offering, the S7 platform represents the pinnacle of wireless audio technology. It is engineered to deliver the most immersive and highest quality audio, with cutting-edge features like ultra-high-resolution audio streaming, seamless connectivity, and ultra-low latency. The Snapdragon S7+ Sound Platform, in conjunction with Qualcomm XPAN Technology, can deliver high bit-rate audiophile music streaming over Wi-Fi with lossless quality.

These platforms incorporate a suite of technologies designed to optimize the entire audio chain, from the source device to the listening device. This includes support for advanced audio codecs, improved Bluetooth connectivity, and features that enhance the overall wireless audio experience.

Gigawit's Commitment to Cutting-Edge Technology

In a rapidly evolving technological landscape, Gigawit Technology is committed to providing customers with the best possible Bluetooth audio solutions. Gigawit focuses on using the latest Qualcomm chips to ensure its products are at the forefront of audio innovation.

Gigawit leverages Qualcomm's advanced QCC chips in its Bluetooth audio transmission and reception technology. This dedication to utilizing cutting-edge technology allows Gigawit to deliver solutions that offer superior audio quality, enhanced connectivity, and robust performance.

Gigawit's expertise in both software and hardware development, combined with its focus on the latest Qualcomm platforms, positions the company as a key player in the Bluetooth audio industry. By embracing advancements in chip technology, Gigawit continues to drive the evolution of wireless audio and provide customers with state-of-the-art solutions.

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蓝牙测试仪器介绍。xiao test Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

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• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images:

Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

• 2019-05-30-welcome.md
• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images:

The blog supports tags as well!

And if you don't want a blog: just delete this directory, and use blog: false in your Docusaurus config.

Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

• 2019-05-30-welcome.md
• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images:

Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

• 2019-05-30-welcome.md
• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images:

Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

• 2019-05-30-welcome.md
• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images:

Docusaurus blogging features are powered by the blog plugin.

Simply add Markdown files (or folders) to the blog directory.

Regular blog authors can be added to authors.yml.

The blog post date can be extracted from filenames, such as:

• 2019-05-30-welcome.md
• 2019-05-30-welcome/index.md

A blog post folder can be convenient to co-locate blog post images: